Danisco US Inc.

Genencor International, Inc.

Dolby Laboratories Licensing Corporation

Dolby International Ab

Other

Dupont Nutrition Biosciences Aps

Block, Inc.

Danisco US Inc., Genencor Division

Genecor International, Inc.

Square, Inc.

Vtt Technical Research Centre of Finland Ltd

Danisco A/s, Genencor Division

Finnfeeds International Ltd.

Daniaco A/s, Genencor Division

Michael C Ward

Nigel S Dunn-Coleman

Frits Goedegebuur

Jian Yao

Jeffrey Charles Riedmiller

Kathleen A Clarkson

Scott Gregory Norcross

Edmund A Larenas

Katherine D Collier

Huaming Wang

Susan Mampusti Madrid

Timothy Fowler

Suzanne E Lantz

Alexander Stahlmann

Elizabeth Ann Bodie

Cherry Lin

Benjamin S Bower

Alexander Groeschel

Michael A Grant

Piet Van Solingen

Markku Saloheimo

Craig E Pilgrim

Masoud Rajabi Zargahi

Geoffrey Turner

Mai Faurschou Isaksen

Ali R Akin

Shirley M Burrow

Dennis Jarosch

Randy M Berka

Scott Douglas Power

Pieter Van Solingen

Pamela K Foreman

Jing Ge

Michael Richard Bedford

Andrew J Morgan

Xiaogang Gu

Paul Abraham Botros

Aleksandra Virag

Rikke Høegh Lorentsen

Mari J Valkonen

Gillian May Lian Wee

Anusha Ramanujam

Julian Hua

Danfeng Song

Mingmin Song

Karl Jonas Roeden

Merja Elisa Penttila

Andrei Miasnikov

Freddie Sanchez

Kirk James Hayenga

Virgil B Lawlis

Geoffrey L Weiss

Jaakko Pere

Steven Sungin Kim

Jeffrey D Lorch

Peter Plumstead

Barbara A Swanson

Jimmy Chan

Harald Mundt

Christof Fersch

Holger Hoerich

John A Howard

Marguerite A Cervin

Rhonda J Wilson

Vinay Melkote

Martin Wolters

Karsten Linzmeier

Merja Penttilä

Tobias Friedrich

Birgitta Leuthner

Elizabeth E Hood

Sang-Kyu Lee

Oliver Kensch

Paulien Neefe-Kruithof

Jens Popp

Timothy C Dodge

Roger Wallace Dressler

Mark S Gebert

Phillip Williams

Ulrich Kettling

Luis Fernando Romero Millan

Tiina Pakula

Roy M Fejgin

Michael W Schelle

James A Sweigard

Franciscus J C Van Gastel

Merja Penttil&auml;

Steven Joseph Venezia

Nina Aro

Mehmet Zahit Guneri

Klaus Pellengahr

Markku L A Saloheimo

Rikke Hoegh Lorentsen

Jian Yiao

Jeffrey P Pucci

Luis Fernando Romero Millán

Kalyani Iyer

Kenji Kaneda

Michele Bailey

Susan Woodard

A method for encapsulating transaction instrument information in a transaction includes storing, in association with a first transaction and by a processor of the primary transaction processor server, transaction data associated with a transaction instrument for a first transaction. The primary transaction processor server transmits the transaction data to a payment network processor, and receives an authorization package in response that includes a cryptograph and a first network token. The primary transaction processor server generates a second token that includes a changeable alpha-numeric string associated with the transaction instrument used in the first transaction, and transmits the second token to a merchant device. The second token indicates that a transaction associated with the second token is either i) a customer-initiated transaction or ii) a merchant-initiated transaction. The secondary transaction processor may approve or reject a transaction using the second token without a cryptogram.

Encapsulation of payment accounts with tokenization

Audio content coded for a reference speaker configuration is downmixed to downmix audio content coded for a specific speaker configuration. One or more gain adjustments are performed on individual portions of the downmix audio content coded for the specific speaker configuration. Loudness measurements are then performed on the individual portions of the downmix audio content. An audio signal that comprises the audio content coded for the reference speaker configuration and downmix loudness metadata is generated. The downmix loudness metadata is created based at least in part on the loudness measurements on the individual portions of the downmix audio content.

Loudness adjustment for downmixed audio content

An audio processing unit (APU) is disclosed. The APU includes a buffer memory configured to store at least one frame of an encoded audio bitstream, where the encoded audio bitstream includes audio data and a metadata container. The metadata container includes a header and one or more metadata payloads after the header. The one or more metadata payloads include dynamic range compression (DRC) metadata, and the DRC metadata is or includes profile metadata indicative of whether the DRC metadata includes dynamic range compression (DRC) control values for use in performing dynamic range compression in accordance with at least one compression profile on audio content indicated by at least one block of the audio data.

Audio encoder and decoder with dynamic range compression metadata

Embodiments are disclosed for channel-based audio (CBA) (e.g., 22.2-ch audio) to object-based audio (OBA) conversion. The conversion includes converting CBA metadata to object audio metadata (OAMD) and reordering the CBA channels based on channel shuffle information derived in accordance with channel ordering constraints of the OAMD. The OBA with reordered channels is rendered in a playback device using the OAMD or in a source device, such as a set-top box or audio/video recorder. In an embodiment, the CBA metadata includes signaling that indicates a specific OAMD representation to be used in the conversion of the metadata. In an embodiment, pre-computed OAMD is transmitted in a native audio bitstream (e.g., AAC) for transmission (e.g., over HDMI) or for rendering in a source device. In an embodiment, pre-computed OAMD is transmitted in a transport layer bitstream (e.g., ISO BMFF, MPEG4 audio bitstream) to a playback device or source device.

Systems, methods and apparatus for conversion from channel-based audio to object-based audio

The present strains and methods of the disclosure relate to genetic modifications in filamentous fungi that give rise to variant strains having altered phenotypes, altered morphologies, altered growth characteristics, and the like. More specifically, as presented and described herein, such variant strains of filamentous fungi comprising reduced viscosity phenotypes are well-suited for growth in submerged cultures (e.g., for the large-scale production of enzymes and other proteins or metabolites for commercial applications).

Filamentous fungal strains comprising reduced viscosity phenotypes

A method for encapsulating transaction instrument information in a transaction includes storing, in association with a first transaction and by a processor of the primary transaction processor server, payment data associated with a payment instrument used to settle a cost of a first transaction. The primary transaction processor server transmits the transaction data to a payment network processor. The primary transaction processor server receives an authorization package from the payment network processor that includes a cryptograph and a first network token. The processor of the primary transaction processor server generates a secondary token, and stores a correlation record to a computer-readable memory. The correlation record associates the secondary token to a second object stored by the primary transaction processor. The processor of the primary transaction processor server transmits a second transaction package including at least one of the network token and the secondary token to a merchant device.

Encapsulation of payment accounts with nested tokens

Compositions and methods are provided for genome modification at a target site in the genome of a filamentous fungal cell. The methods and compositions are drawn to a guide polynucleotide/Cas endonuclease system for modifying or altering the target site. Aspects in which the filamentous fungal cell being modified has a defective non-homologous end joining pathway are also provided.

Fungal genome modification systems and methods of use

Compositions and methods are provided for genome modification at a target site in the genome of a fungal cell. The methods and compositions are drawn to a guide polynucleotide/Cas endonuclease system for promoting modification of the DNA sequence at a target site in a fungal host cell genome.

Methods for detecting whether a rendered version of a specified seamless connection ('SSC') at a connection point between two audio segment sequences results in an audible discontinuity, and methods for analyzing at least one SSC between audio segment sequences to determine whether a renderable version of each SSC would have an audible discontinuity at the connection point when rendered, and in appropriate cases, for a SSC having a renderable version which is determined to have an audible discontinuity when rendered, correcting at least one audio segment of at least one segment sequence to be connected in accordance with the SSC in an effort to ensure that rendering of the SSC will result in seamless connection without an audible discontinuity. Other aspects are editing systems configured to implement any of the methods, and storage media and rendering systems which store audio data generated in accordance with any of the methods.

Audio discontinuity detection and correction

Compositions and methods are provided for genome modification at a target site in the genome of a fungal cell. Aspects of methods and compositions are drawn to a guide polynucleotide/Cas endonuclease system for promoting insertion of a donor DNA at a desired target site in a fungal host cell genome.

Growing community of inventors

Orinda, CA, United States of America

Michael C Ward