Physio-control, Inc.

Ferring B.v.

Jolife Ab

Other

Stryker Corporation

Qliktech International Ab

Ferring Ab

Anders Nilsson

Sara Lindroth

Erik Von Schenck

Bjarne Madsen Härdig

Gregory T Kavounas

Marcus Ehrstedt

Anders Jeppsson

Fred William Chapman

Hans Lindner

Jonas Lagerstrom

Krystyna Szul

Jørgen Wittendorff

Fredrik Arnwald

Steven B Duke

Jens Fomsgaard

Jon Holbech Rasmussen

Ulf Annby

Bo Mellberg

Birgitta Mörnstam

Anders Tsirk

Paul Rasmusson

Grégoire Schwach

Tine Elisabeth Gottschalk Bøving

Mitchell Allen Smith

Thomas Falk

Ryan Landon

Robert G Walker

Peter Sebelius

Jerzy A Trojnar

Jonas Lagerström

Anders Jeppson

Tyson G Taylor

Carl-Johan Aurell

Håkan Wolgé

Thomas Lindén

Per O Melin

Anders Helmer

Ingemar Carlo

Guangcheng Jiang

Kazimierz Wisniewski

Håkan Sjödin

Nils Hulth

José Diaz López

Pierre Riviere

Pär Rosander

David J Linville

José Dìaz López

Anders Torbjörn Jeppsson

Steven Chester

Britta Siekmann

Robert Haigh

Hangkan Olson

Alexey Titov

Wiktor Kocula

Tobias Svahn

Eric Sandrup

Karl Fredrik Mauritz Arnwald

Per Axelsson

Mattias Malm

Dipak Kalita

Mohosin Layek

Atmakuri Venkata Dhanunjaya Rao

Venkat Aravinda Potula

Vikas Gajare

Lars Anders Jörgen Segerstein

Kesavan Balakumaran

Jçrgen Wittendorff

Daniel Ekfjorden

Elias Svensson

Kenneth Ellingsen

Torsten Frey-Hall

Eirik Lundmark

Maral Babapour

Ines Junge

Christina Soderberg-Ahlm

Robert Walker

Tine Elisabeth Gottschalk Boeving

Sara K Lindroth

Erik CB Von Schenck

An active backboard that can assist with adjusting a patient on the backboard to ensure that the backboard is correctly aligned for a compression mechanism of an upper portion of a mechanical cardiopulmonary resuscitation (CPR) device to perform compressions. The active backboard can also include multiple layers that can slide or move relative to each other to move the patient relative to the backboard. The active backboard can include roller bars, a wheel, and/or projections to assist with moving a patient relative to the backboard.

Mechanical CPR device with active backboard

Examples of the disclosure are directed to adjustable back plates or backboards for a mechanical compression device to accommodate different patient sizes and/or for ease of storage. Examples of the disclosure includes back plates that can be folded, pieced together, or otherwise have a variable distance between connectors that attach to legs of a chest compression device. Examples also include back plates which may have two sides, such as an adult patient side and a pediatric patient side, to accommodate different patient sizes.

Adjustable back plate for mechanical compression device

In embodiments, a CPR chest compression system includes a retention structure that can retain the patient's body, and a compression mechanism that can perform automatically CPR compressions and releases to the patient's chest. The compression mechanism can pause the performing of the CPR compressions for a short time, so that an attendant can check the patient. The CPR system can include a user interface that can output a human-perceptible check patient prompt, to alert an attendant to check the patient during the pause. The compression mechanism can during a CPR session retreat a distance away from the patient's chest whereby the patient's chest can expand without active decompression of the patient's chest beyond the chest's natural resting position.

CPR chest compression system

A CPR machine () is configured to perform, on a patient's () chest, compressions that alternate with releases. The CPR machine includes a compression mechanism (), and a driver system () configured to drive the compression mechanism. A force sensing system () may sense a compression force, and the driving can be adjusted accordingly if there is a surprise. For instance, driving may have been automatic according to a motion-time profile, which is adjusted if the compression force is not as expected (). An optional chest-lifting device () may lift the chest between the compressions, to assist actively the decompression of the chest. A lifting force may be sensed, and the motion-time profile can be adjusted if the compression force or the lifting force is not as expected.

CPR chest compression machine adjusting motion-time profile in view of detected force

In embodiments, a CPR chest compression system includes a retention structure that can retain the patient's body, and a compression mechanism that can perform automatically CPR compressions and releases to the patient's chest. The compression mechanism can pause the performing of the CPR compressions for a short time, so that an attendant can check the patient. The CPR system also includes a user interface that can output a human-perceptible check patient prompt, to alert an attendant to check the patient during the pause. An advantage can be when the attendant checks in situations where the condition of the patient might have changed, and an adjustment is needed. Or in situations where the patient may have improved enough to where the compressions are no longer needed.

CPR chest compression system periodically reminding attendant to check patient

The disclosed CPR devices, systems, and methods adjust a compression depth of a compression mechanism to account for chest collapse of the patient receiving CPR. Compression depth can be adjusted up to a maximum depth in some examples. The compression depth can also be adjusted linearly or non-linearly as the zero point or starting position of the patient's chest changes due to chest collapse. Other factors can also be used to adjust the compression depth such as patient parameters that can be observed by a rescuer or sensed by sensors wirelessly connected to or integrated into the system. CPR devices that include active decompression can also use the disclosed techniques for adjusting the chest compression depth as the patient's chest collapses.

Mechanical CPR with selective zero-position and compression depth adjustment

A CPR chest compression system includes a retention structure that retains the body of a patient, and a motor and a compressor that can perform CPR compressions to the chest of the patient. The motor is powered by a battery that is located on the retention structure but away from the motor, and is electrically connected to the motor via one or more wires. Accordingly the weight and volume of the battery can be located away from a top portion of the retention structure. This renders the CPR system is less heavy at the top, and therefore less likely to tilt and start compressing the chest at a different point. Moreover, this permits X-Rays of a larger footprint to go through the CPR system and reach the patient, in example configurations where the components are transparent to X-Rays.

CPR chest compression system with motor powered by battery located away from the motor

The disclosed mechanical cardio-pulmonary resuscitation (CPR) apparatuses, systems, and devices have a plunger and a plunger displace sensor that can sense plunger displacement information during reciprocating cycles of the plunger. The disclosure CPR apparatuses, systems, and devices also have a microprocessor unit that can receive sensed plunger displacement information from the sensor and generate plunger driving instructions based on the plunger displacement information. The plunger driving instructions have one or both of a plunger driving force and a plunger amplitude for the reciprocating cycles.

Driving control of a reciprocating CPR apparatus

Provided are methods comprising receiving a query for information from the database, determining particular data element types and data element values that are the subject of the query, instantiating a query data structure containing the data element types and the data element values that are the subject of the query, identifying records within the database that contain one or more data element types and/or data element values that are included in the query data structure, and instantiating a results data structure comprising information relating to the identified records.

Methods and systems for data management and analysis

Chest compression machine systems and methods adjust the administration of patient treatment based on received physiological parameter measurements, such as a CO2 measurement. Adjustment of the administered chest compressions can include adjusting one or more chest compression parameters, such as the depth of the administered compressions, the administration of active decompressions, adjusting the height of active decompression, adjusting the rate of compressions and/or active decompressions and/or other changes to one or more properties, or characteristics, of the administered chest compressions and/or active decompressions.

Chest compression machine systems and methods

A CPR apparatus includes a chest compression unit and a means for mounting the chest compression unit on a patient. The chest compression unit includes a plunger disposed in a housing. At its one end extending from the housing the plunger has a compression member. The plunger is driven in a reciprocating manner by a reversible electromotor via a mechanism for translating rotational motion to linear motion or by a linear induction electromotor. The chest compression unit includes an electromotor control unit including a microprocessor, a first monitor for monitoring the position of the plunger in respect of the housing and a second monitor for monitoring the position of the plunger in respect of the mechanism for translating rotational motion to linear motion or the rotor of the linear induction electromotor. The monitored positions are communicated to the electromotor control unit. Also disclosed is a corresponding CPR method.

CPR apparatus and method

The present invention provides methods for producing a lyophilized degarelix product which, upon reconstitution with water for injection in an amount of 20 mg/ml, shows a viscosity of up to 15 mPas. The present invention also provides a lyophilized degarelix drug substance which shows, upon dissolution in water in an amount of 20 mg/ml, a viscosity of up to 3.2 mPas, a and processes for providing this lyophilized degarelix drug substance.

Manufacture of degarelix

Growing community of inventors

Lund, Sweden

Anders Nilsson