Jiangsu Stmed Technology Co., Ltd.

Inspur Suzhou Intelligent Technology Co., Ltd

Rosenberger Technologies Co., Ltd.

Rosenberger Technologies LLC

Asclepius (suzhou) Technology Company Group Co., Ltd.

Suzhou Thinking Power Biotechnology Co., Ltd.

Peng Liu

Yujie Liu

Ridong Liu

Huashun Li

Baoyong Ren

Jing Sun

Tao Jiang

Dele Wang

Embodiments of the present disclosure provide a membrane oxygenator including an upper cover, a lower cover, a shell, and an oxygenation structure. Both ends of the shell are connected with the upper cover and the lower cover respectively. The oxygenation structure includes a mandrel, an oxygen pressure membrane, and a temperature-changing membrane, wherein an upper end of the mandrel enters a first blood path space of the upper cover, a lower end of the mandrel is opposite to a blood outlet of the lower cover, the oxygen pressure membrane is provided around the mandrel and connects a first gas path space and a second gas path space, and the temperature-changing membrane wraps around the oxygen pressure membrane. A gap is provided between the temperature-changing membrane and an inner wall of the shell. A blood inlet is provided on the shell near the upper cover.

Membrane oxygenators

Disclosed is a method for resource exposure in kubernetes, including: in response to receiving a request for applying for a service resource, judging whether a mapping relationship between a label corresponding to a type of the service resource and virtual IPs exists in a first configuration file of a keepalived service; in response to absence of the mapping relationship, acquiring new virtual IPs and establishing, in the first configuration file, a mapping relationship between the new virtual IPs and the label; and binding the virtual IPs corresponding to the label in the first configuration file to a plurality of pods corresponding to the service resource, so as to expose the plurality of the pods outside a kubernetes cluster by the virtual IP. Further disclosed are a system, a computer device and a readable storage medium.

Method and system for resource exposure in kubernetes, and device and medium

The present disclosure discloses an integrated membrane oxygenator including an oxygenator and a filter attached to the oxygenator. The oxygenator may include an upper cover, a lower cover, a shell, and an oxygenation structure. Two ends of the filter may be respectively connected with the upper cover and the lower cover. The oxygenation structure may include a mandrel, an oxygen pressure membrane, and a temperature-changing membrane arranged inside the shell. The filter may include a filter shell, a diversion structure, and a filter screen arranged inside the filter shell. An inlet of the filter shell may be connected with a blood outlet on the lower cover of the oxygenator, and blood oxygenated by the oxygenator may directly enter the filter for filtration.

Integrated membrane oxygenators

The embodiments of the present disclosure may provide a membrane oxygenator with a built-in filter, including an upper cover, a lower cover, a shell and an oxygenation structure, wherein two ends of the shell may be respectively connected to the upper cover and the lower cover, and the oxygenation structure may be disposed in the shell, including a mandrel, a filter screen, an oxygen pressure membrane, and a temperature-changing membrane in turn from a center to an outside. The blood may flow in from an upper blood inlet of the membrane oxygenator, traverse the temperature-changing membrane, oxygen pressure membrane and filter screen in turn, and then flow out from a blood outlet under the mandrel. During a process of traversing, a flow rate of the blood may gradually slow down, and the blood may fully contact the oxygen pressure membrane and the filter screen.

Membrane oxygenator with built-in filter

A high-gain miniaturized antenna element includes a radiation structure and a feed support structure. The radiation structure includes a first radiator and a second radiator. The first radiator is arranged horizontally. The second radiator is formed by bending an outer edge of the first radiator downwardly. The feed support structure includes a plurality of feed support parts arranged vertically. Each feed support part is a downward extension of the first radiator.

High-gain miniaturized antenna element and antenna

The present invention provides a recombinant fusion protein. The fusion protein is formed by the fusion of D2 domain of Slit2 protein and HSA protein, and the position 386 amino acid of the Slit2 protein molecule is serine.

Fusion protein Slit2D2(C386S)-HSA and use thereof in prevention and/or treatment of lung inflammation

The present invention relates to the field of biomedical technology, in particular to a fusion protein Slit2D2(C386S)-HSA and use thereof in the treatment and/or prevention of fibrotic diseases. In the fusion protein, the amino acid residue is mutated on the basis of the Slit2D2 domain, which improves the stability of the fusion protein compared with the native protein. The above fusion protein is obtained by fusing Slit2D2(C386S) with HSA protein, which prolongs the metabolism time of the drug while improving the stability of the drug. The fusion protein provided by the present invention is more effective than the positive control drug in the prevention and treatment of fibrotic diseases, particularly pulmonary fibrosis, and shows good drug-forming properties.

Growing community of inventors

Suzhou, China

Peng Liu