mhurhangee/patent-ind-claim-en huggingface dataset:
A thermal management component (81, 82; 91, 92, 300, 400, 500), applicable to a battery comprising two layers of outer battery units (13, 15; 130, 150; 131, 151) and at least one layer of intermediate battery units (14, 16, 17; 140; 141) arranged between the two layers of the outer battery units (13, 15; 130, 150; 131, 151), comprising: a set of first heat exchange surfaces , each configured to cooperate with one of the outer battery units (13, 15; 130, 150; 131, 151) located on one side of the thermal management component (81, 82; 91, 92, 300, 400, 500) for temperature regulation; and a set of second heat exchange surfaces , each configured to cooperate with one of the intermediate battery units located on the other side of the thermal management component (81, 82; 91, 92, 300, 400, 500) for temperature regulation; wherein each of the first heat exchange surfaces has a surface area S1, and each of the second heat exchange surfaces has a surface area S2, where S1 is greater than S2. a set of first heat exchange surfaces , each configured to cooperate with one of the outer battery units (13, 15; 130, 150; 131, 151) located on one side of the thermal management component (81, 82; 91, 92, 300, 400, 500) for temperature regulation; and a set of second heat exchange surfaces , each configured to cooperate with one of the intermediate battery units located on the other side of the thermal management component (81, 82; 91, 92, 300, 400, 500) for temperature regulation; wherein each of the first heat exchange surfaces has a surface area S1, and each of the second heat exchange surfaces has a surface area S2, where S1 is greater than S2.
A device, comprising an object comprising a planar bearing region and a carrier plate comprising a bearing region which is arranged plane-parallel to the bearing region of the object , wherein the object is rotatable in relation to the bearing plate in one of two possible opposing rotational directions (R 1 , R 2 ) and is displaceable in a predetermined direction (A), characterized in that bearing surfaces of the bearing regions facing toward one another each comprise closed, peripheral running grooves , in which roller bodies are guided, wherein the running grooves are formed in such a way that if a force acts on the object in a direction (A) defined in the plane of the bearing region , the object is movable in an at least partially positively-guided, simultaneously rotational and translational movement from a starting position into an intermediate position, during which the object is rotated in relation to the bearing plate in one of two possible opposing rotational directions (R 1 , R 2 ) and is displaced in a predetermined direction (A), and wherein the object , after the movement into the intermediate position, is pivotable in relation to the carrier plate further in the one of two possible opposing rotational directions (R 1 , R 2 ) and is displaceable opposite to the predetermined direction (A) and occupies the base position again upon a pivot by 180°.
A method for preparing a oligodendrocyte progenitor cell, comprising: culturing a fibroblast cell with a first medium, wherein the first medium consists of: a first basic medium, a first protein kinase inhibitor, BDNF, NT3, VPA, dbcAMP, and Retinoic acid, wherein the first protein kinase inhibitor is at least one selected from the group consisting of Y27632, Palomid 529, LY294002, PF562271 and rapamycin. culturing a fibroblast cell with a first medium, wherein the first medium consists of: a first basic medium, a first protein kinase inhibitor, BDNF, NT3, VPA, dbcAMP, and Retinoic acid, a first basic medium, a first protein kinase inhibitor, BDNF, NT3, VPA, dbcAMP, and Retinoic acid, wherein the first protein kinase inhibitor is at least one selected from the group consisting of Y27632, Palomid 529, LY294002, PF562271 and rapamycin.
Method for analyzing an automation system of a mechanism, in particular a driver assistance system of a vehicle which has environment sensors , comprising the following operating steps: • Simulating (S1) an environmental scenario for the mechanism, in particular a traffic scenario; • Deriving (S3) a response signal to be detected by at least one environment sensor , in particular an ultrasonic response signal, based on the environment scenario from the perspective of the at least one environment sensor ; • Outputting (S4) the response signal to the at least one environment sensor by means of an emulator , wherein the at least one environment sensor generates sensor data based on the output response signal; • Operating (S5) the automation system and/or the mechanism by means of the generated sensor data and preferably further sensor data of real and/or simulated sensors; and characterized in that the method further has following operating step: • Simulating (S2) the at least one environmental sensor using a sensor model, wherein the at least one simulated environment sensor virtually senses the simulated environment scenario, and the response signal is generated based on the virtually sensed simulated environment scenario. • Simulating (S1) an environmental scenario for the mechanism, in particular a traffic scenario; • Deriving (S3) a response signal to be detected by at least one environment sensor , in particular an ultrasonic response signal, based on the environment scenario from the perspective of the at least one environment sensor ; • Outputting (S4) the response signal to the at least one environment sensor by means of an emulator , wherein the at least one environment sensor generates sensor data based on the output response signal; • Operating (S5) the automation system and/or the mechanism by means of the generated sensor data and preferably further sensor data of real and/or simulated sensors; and • Simulating (S2) the at least one environmental sensor using a sensor model,
An image processing apparatus , comprising: an image acquisition unit that acquires a plurality of endoscope images obtained by imaging an observation target at different times with an endoscope ; a blood vessel extraction unit that extracts blood vessels of the observation target from each of the plurality of endoscope images; a blood vessel information calculation unit that calculates a plurality of pieces of blood vessel information for each of the blood vessels extracted from the endoscope images; a blood vessel parameter calculation unit that calculates a blood vessel parameter, which is relevant to the blood vessels extracted from each of the endoscope images, by calculation using the blood vessel information; and a blood vessel change index calculation unit that calculates a blood vessel change index, which indicates a temporal change of the blood vessels of the observation target, using the blood vessel parameter. an image acquisition unit that acquires a plurality of endoscope images obtained by imaging an observation target at different times with an endoscope ; a blood vessel extraction unit that extracts blood vessels of the observation target from each of the plurality of endoscope images; a blood vessel information calculation unit that calculates a plurality of pieces of blood vessel information for each of the blood vessels extracted from the endoscope images; a blood vessel parameter calculation unit that calculates a blood vessel parameter, which is relevant to the blood vessels extracted from each of the endoscope images, by calculation using the blood vessel information; and a blood vessel change index calculation unit that calculates a blood vessel change index, which indicates a temporal change of the blood vessels of the observation target, using the blood vessel parameter.
A light emitting device, comprising: a substrate ; a light emitting structure disposed under the substrate 8110) and including a first conductive semiconductor layer , an active layer , and a second conductive semiconductor layer ; a first insulating layer configured to expose the second conductive semiconductor layer and disposed on a lower edge of the light emitting structure ; a first light permeable electrode layer disposed under the second conductive semiconductor layer exposed by the first insulating layer ; a second light permeable electrode layer disposed under the first insulating layer and the first light permeable electrode layer ; and a reflective layer disposed under the second light permeable electrode layer , characterised in that a width (W4) in a first direction of the first insulating layer disposed under the lower edge of the light emitting structure is in a range of 10 μ m to 40 μ m the first direction being perpendicular to a thickness direction of the light emitting structure, wherein an overlapping width (W31, W32) by which the first insulating layer , the second light permeable electrode layer , and the reflective layer overlap in the thickness direction is 5 μ m, and wherein a thickness of each of the first and second light permeable electrode layers is in a range of several nanometers to several tens of nanometers. a substrate ; a light emitting structure disposed under the substrate 8110) and including a first conductive semiconductor layer , an active layer , and a second conductive semiconductor layer ; a first insulating layer configured to expose the second conductive semiconductor layer and disposed on a lower edge of the light emitting structure ; a first light permeable electrode layer disposed under the second conductive semiconductor layer exposed by the first insulating layer ; a second light permeable electrode layer disposed under the first insulating layer and the first light permeable electrode layer ; and a reflective layer disposed under the second light permeable electrode layer , characterised in that a width (W4) in a first direction of the first insulating layer disposed under the lower edge of the light emitting structure is in a range of 10 μ m to 40 μ m the first direction being perpendicular to a thickness direction of the light emitting structure, wherein an overlapping width (W31, W32) by which the first insulating layer , the second light permeable electrode layer , and the reflective layer overlap in the thickness direction is 5 μ m, and wherein a thickness of each of the first and second light permeable electrode layers is in a range of several nanometers to several tens of nanometers.
An intra prediction method for video decoding, the method comprising: (S310, S1420) deriving an intra prediction mode for a current block ; and (S340, S1430) generating a predicted block which includes prediction samples by deriving a prediction sample for the current block based on a first reference sample , wherein the first reference sample is derived based on the intra prediction mode, wherein the intra prediction mode is a horizontal prediction mode, and wherein the generating the predicted block includes filtering the prediction sample which is one of prediction samples adjacent to a top boundary of the current block , wherein the first reference sample is located along a horizontal prediction direction with regard to a location of the prediction sample , wherein the first reference sample is located outside of the current block and is adjacent to a left boundary of the current block , and the filtering the prediction sample is performed based on a second reference sample which is located along a vertical direction with regard to the location of the prediction sample , wherein the second reference sample is located outside of the current block and is adjacent to the top boundary of the current block . (S310, S1420) deriving an intra prediction mode for a current block ; and (S340, S1430) generating a predicted block which includes prediction samples by deriving a prediction sample for the current block based on a first reference sample , wherein the first reference sample is derived based on the intra prediction mode, wherein the intra prediction mode is a horizontal prediction mode, and wherein the generating the predicted block includes filtering the prediction sample which is one of prediction samples adjacent to a top boundary of the current block , wherein the first reference sample is located along a horizontal prediction direction with regard to a location of the prediction sample , wherein the first reference sample is located outside of the current block and is adjacent to a left boundary of the current block , and the filtering the prediction sample is performed based on a second reference sample which is located along a vertical direction with regard to the location of the prediction sample , wherein the second reference sample is located outside of the current block and is adjacent to the top boundary of the current block .
A buckling loop rotary motor , comprising: a rigid stator , comprising a cylindrical inner surface having a circular cross-section; a buckling loop , constrained within said cylindrical inner surface to form one or more buckles; and characterized by means for generating an activation force within said buckling loop, said activation force effecting a change of shape of said one or more buckles, thereby impelling said buckling loop to rotate with respect to said rigid stator about an axis of rotation located substantially coaxially with a central axis of said cylindrical inner surface. a rigid stator , comprising a cylindrical inner surface having a circular cross-section; a buckling loop , constrained within said cylindrical inner surface to form one or more buckles; and characterized by means for generating an activation force within said buckling loop, said activation force effecting a change of shape of said one or more buckles, thereby impelling said buckling loop to rotate with respect to said rigid stator about an axis of rotation located substantially coaxially with a central axis of said cylindrical inner surface.
Device for the vulcanization of tyre blanks, which has at least one heatable mould for receiving the tyre blank and which has at least one controllable supply device for a heating medium, which is provided with at least one valve , characterized in that the valve has a positioning device that is actuated by a liquid fluid, in that the positioning device has a piston-cylinder assembly, in that a pump is used to deliver the liquid fluid and for a pressure buildup, in that the pump is coupled to a tank , and in that the at least one valve is coupled to a control valve , which is designed as a 3/2-way valve.
An electronic device comprising: a main processor a secure processor , and a secure memory , wherein the secure processor is configured to: perform user authentication for determining approval of a firmware update by a user, based on firmware update information received from a server through the main processor , based on the user authentication being successful , generate authentication information corresponding to the firmware update information, store the authentication information in at least a part of the secure memory , based on a firmware installation condition being satisfied, perform authentication of the firmware, based on the authentication information stored in the secure memory , and based on the authentication of the firmware being successful, install the firmware, based on the authentication of the firmware failing, perform user re-authentication for determining approval of the firmware update by the user, and based on the user re-authentication being successful, install the firmware. a main processor a secure processor , and a secure memory , wherein the secure processor is configured to: perform user authentication for determining approval of a firmware update by a user, based on firmware update information received from a server through the main processor , based on the user authentication being successful , generate authentication information corresponding to the firmware update information, store the authentication information in at least a part of the secure memory , based on a firmware installation condition being satisfied, perform authentication of the firmware, based on the authentication information stored in the secure memory , and based on the authentication of the firmware being successful, install the firmware, based on the authentication of the firmware failing, perform user re-authentication for determining approval of the firmware update by the user, and based on the user re-authentication being successful, install the firmware. perform user authentication for determining approval of a firmware update by a user, based on firmware update information received from a server through the main processor , based on the user authentication being successful , generate authentication information corresponding to the firmware update information, store the authentication information in at least a part of the secure memory , based on a firmware installation condition being satisfied, perform authentication of the firmware, based on the authentication information stored in the secure memory , and based on the authentication of the firmware being successful, install the firmware, based on the authentication of the firmware failing, perform user re-authentication for determining approval of the firmware update by the user, and based on the user re-authentication being successful, install the firmware.
An earplug , comprising: a front insertion portion ; a single rear flange extending from a periphery of the front insertion portion in a direction away from the insertion portion ; a push-in portion delimited by the intersection of the front insertion portion and the single rear flange ; wherein the front insertion portion is configured to be partially inserted into an ear canal of a wearer; wherein the earplug is integrally formed of a resilient compressible foamed thermoset material; and wherein the front insertion portion comprises a cylinder and wherein the single rear flange and the push-in portion form a truncated cylinder. a front insertion portion ; a single rear flange extending from a periphery of the front insertion portion in a direction away from the insertion portion ; a push-in portion delimited by the intersection of the front insertion portion and the single rear flange ; wherein the front insertion portion is configured to be partially inserted into an ear canal of a wearer; wherein the earplug is integrally formed of a resilient compressible foamed thermoset material; and
A stretchable antenna , comprising: a flexible support structure comprising a lateral spring section having a proximal end and a distal end; a metallic antenna disposed on at least a portion of the lateral spring section, the metallic antenna extending along the lateral spring section from the proximal end; and a metallic feed coupled to the metallic antenna at the proximal end of the lateral spring section, wherein the lateral spring section has a width w in a plane defined by the proximal end and the distal end, and wherein the lateral spring section elongates along a direction from the proximal end to the distal end, and the width w rotates out of the plane. a flexible support structure comprising a lateral spring section having a proximal end and a distal end; a metallic antenna disposed on at least a portion of the lateral spring section, the metallic antenna extending along the lateral spring section from the proximal end; and a metallic feed coupled to the metallic antenna at the proximal end of the lateral spring section, wherein the lateral spring section has a width w in a plane defined by the proximal end and the distal end, and wherein the lateral spring section elongates along a direction from the proximal end to the distal end, and the width w rotates out of the plane.
A method of producing antigen-specific effector T cells and/or NK cells comprising: (a) engineering pluripotent stem cells (PSCs) to express a chimeric antigen receptor (CAR), thereby producing CAR-PSCs; (b) differentiating the CAR-PSCs to CD34 + hematopoietic progenitor cells (HPCs); (c) further differentiating the CD34 + HPCs to T cells and/or NK cells; and (d) expanding the T cells and/or NK cells, wherein expanding comprises co-culturing with antigen-specific target cells, thereby producing antigen-specific effector T cells and/or NK cells, wherein step (b) comprises performing directed differentiation comprising (ba) generating embryoid bodies (EBs) in the presence of blebbistatin, a GSK-3 inhibitor, FGF2, and VEGF; (bb) contacting the EBs with BMP-4, VEGF, and FGF2 to induce mesoderm induction; and (bc) differentiating the EBs in the presence of Flt-3 ligand, IL3, SCF, and TPO, thereby producing HPCs. (a) engineering pluripotent stem cells (PSCs) to express a chimeric antigen receptor (CAR), thereby producing CAR-PSCs; (b) differentiating the CAR-PSCs to CD34 + hematopoietic progenitor cells (HPCs); (c) further differentiating the CD34 + HPCs to T cells and/or NK cells; and (d) expanding the T cells and/or NK cells, wherein expanding comprises co-culturing with antigen-specific target cells, thereby producing antigen-specific effector T cells and/or NK cells, (ba) generating embryoid bodies (EBs) in the presence of blebbistatin, a GSK-3 inhibitor, FGF2, and VEGF; (bb) contacting the EBs with BMP-4, VEGF, and FGF2 to induce mesoderm induction; and (bc) differentiating the EBs in the presence of Flt-3 ligand, IL3, SCF, and TPO, thereby producing HPCs.
A mobile robot transmission arrangement , comprising: a movable actuator assembly ; and a transmission element being movably connected to the actuator assembly such that the transmission element is guided in a vertical plane (z) by moving the actuator assembly in a horizontal plane (xy), wherein the actuator assembly comprises one or more vertically tilted tracks , and wherein the transmission element is connected to the actuator assembly by means of said one or more tracks , wherein the mobile robot transmission arrangement further comprises a fixed frame supporting the actuator assembly and the transmission element , and wherein the fixed frame comprises one or more steering members configured to prevent horizontal movement of the transmission element , characterized in that wherein the transmission element further comprises one or more vertically extending pins configured to engage with a corresponding recess of an associated support structure when the transmission element is in a vertically elevated position, and wherein the steering member comprises an opening configured to receive an associated pin , such that only vertical movement of the pin relative the opening is allowed. a movable actuator assembly ; and a transmission element being movably connected to the actuator assembly such that the transmission element is guided in a vertical plane (z) by moving the actuator assembly in a horizontal plane (xy), wherein the actuator assembly comprises one or more vertically tilted tracks , and wherein the transmission element is connected to the actuator assembly by means of said one or more tracks , wherein the mobile robot transmission arrangement further comprises a fixed frame supporting the actuator assembly and the transmission element , and wherein the fixed frame comprises one or more steering members configured to prevent horizontal movement of the transmission element , characterized in that wherein the transmission element further comprises one or more vertically extending pins configured to engage with a corresponding recess of an associated support structure when the transmission element is in a vertically elevated position, and wherein the steering member comprises an opening configured to receive an associated pin , such that only vertical movement of the pin relative the opening is allowed.