mhurhangee/ep-ind-claims huggingface dataset:
A server tray package, comprising: a motherboard assembly that comprises a plurality of data center electronic devices (214, 216); and a liquid cold plate assembly that comprises: a base portion mounted to the motherboard assembly, the base portion and motherboard assembly defining a volume that at least partially encloses the plurality of data center electronic devices (214, 216); and a top portion mounted to the base portion and comprising a heat transfer member that comprises a first number of inlet ports and a second number of outlet ports that are in fluid communication with a cooling liquid flow path defined through the heat transfer member, the first number of inlet ports being different than the second number of outlet ports, wherein respective ports larger in number are each placed at or near a perimeter edge of the top portion and respective ports smaller in number are positioned at or near a center of the top portion. a motherboard assembly that comprises a plurality of data center electronic devices (214, 216); and a liquid cold plate assembly that comprises: a base portion mounted to the motherboard assembly, the base portion and motherboard assembly defining a volume that at least partially encloses the plurality of data center electronic devices (214, 216); and a top portion mounted to the base portion and comprising a heat transfer member that comprises a first number of inlet ports and a second number of outlet ports that are in fluid communication with a cooling liquid flow path defined through the heat transfer member, the first number of inlet ports being different than the second number of outlet ports, wherein respective ports larger in number are each placed at or near a perimeter edge of the top portion and respective ports smaller in number are positioned at or near a center of the top portion. a base portion mounted to the motherboard assembly, the base portion and motherboard assembly defining a volume that at least partially encloses the plurality of data center electronic devices (214, 216); and a top portion mounted to the base portion and comprising a heat transfer member that comprises a first number of inlet ports and a second number of outlet ports that are in fluid communication with a cooling liquid flow path defined through the heat transfer member, the first number of inlet ports being different than the second number of outlet ports, wherein respective ports larger in number are each placed at or near a perimeter edge of the top portion and respective ports smaller in number are positioned at or near a center of the top portion.
A cranial anchor apparatus (200, 400) configured to attach to an opening in a cranium, the anchor apparatus being elongate along a first axis and comprising: a middle anchor portion (204, 404) defining a middle anchor recess that extends about the first axis; and a lower anchor portion (206, 406) coupled to and disposed in a downward direction relative to the middle anchor portion along the first axis, the lower anchor portion including: a plurality of contact members (208, 408) that together define a lower anchor recess, each of the plurality of contact members having: a leg that extends at least partially in the downward direction, a tab (216, 416) connected to the leg, the tab extending at least partially in the downward direction so as to form an obtuse angle relative to the leg, and a rib (214, 414) disposed between the leg and the tab. a middle anchor portion (204, 404) defining a middle anchor recess that extends about the first axis; and a lower anchor portion (206, 406) coupled to and disposed in a downward direction relative to the middle anchor portion along the first axis, the lower anchor portion including: a plurality of contact members (208, 408) that together define a lower anchor recess, each of the plurality of contact members having: a leg that extends at least partially in the downward direction, a tab (216, 416) connected to the leg, the tab extending at least partially in the downward direction so as to form an obtuse angle relative to the leg, and a rib (214, 414) disposed between the leg and the tab. a leg that extends at least partially in the downward direction, a tab (216, 416) connected to the leg, the tab extending at least partially in the downward direction so as to form an obtuse angle relative to the leg, and a rib (214, 414) disposed between the leg and the tab.
A feeder assembly comprising: a feeder housing; a shaft mounted to rotate relative to the feeder housing about a center axis; a first rotary drive mounted to rotate with the shaft at a first axial position along the shaft; a second rotary drive mounted to rotate with the shaft at a second axial position along the shaft, the second axial position being spaced along the center axis from the first axial position; an anti-wrap cover assembly extending an entire distance from the first rotary drive to the second rotary drive and at least partially surrounding the first rotary drive, the second rotary drive, and the shaft between the first rotary drive and the second rotary drive, the anti-wrap cover assembly being rotatably mounted to at least one of the first rotary drive, the second rotary drive and the shaft; and a connector joining the feeder housing to the anti-wrap cover assembly characterized in that the connector is configured to allow the anti-wrap cover assembly to move through a predetermined limited range of motion relative to the feeder housing. a feeder housing; a shaft mounted to rotate relative to the feeder housing about a center axis; a first rotary drive mounted to rotate with the shaft at a first axial position along the shaft; a second rotary drive mounted to rotate with the shaft at a second axial position along the shaft, the second axial position being spaced along the center axis from the first axial position; an anti-wrap cover assembly extending an entire distance from the first rotary drive to the second rotary drive and at least partially surrounding the first rotary drive, the second rotary drive, and the shaft between the first rotary drive and the second rotary drive, the anti-wrap cover assembly being rotatably mounted to at least one of the first rotary drive, the second rotary drive and the shaft; and a connector joining the feeder housing to the anti-wrap cover assembly characterized in that the connector is configured to allow the anti-wrap cover assembly to move through a predetermined limited range of motion relative to the feeder housing.
A system for implanting an implantable device in a body, comprising: an implantable device; a composite detachment mechanism comprising a polymer substrate having a conductive material-coated region coated with conductive material; two electrodes contacting the conductive material-coated region such that passing a current through the conductive material results in heating to temperatures above a melting point of the polymer, thereby releasing the implantable device; and an energy source operatively connected to the electrodes. an implantable device; a composite detachment mechanism comprising a polymer substrate having a conductive material-coated region coated with conductive material; two electrodes contacting the conductive material-coated region such that passing a current through the conductive material results in heating to temperatures above a melting point of the polymer, thereby releasing the implantable device; and an energy source operatively connected to the electrodes.
Device for moving the piston inside a cartridge having a cartridge body and a piston arranged therein displaceable along a longitudinal axis of the cartridge body, the device comprising: - a first portion having first coupling means for releasably coupling the cartridge body of the cartridge to the first portion in such a manner that in both directions of said longitudinal axis of the cartridge body there exists a positive connection and/or a frictional connection between the cartridge body and the first portion; - a second portion having second coupling means (7, 11a, 11b, 12; 7, 12, 17a, 17b) for releasably coupling the piston of the cartridge to the second portion in such a manner that in both directions of said longitudinal axis of the cartridge body there exists a positive connection and/or a frictional connection between the piston and the second portion; wherein said second portion is moveable relative to the first portion forward and backward between a fully retracted position and a fully extended position along a longitudinal axis in order to effect, in the intended use of the device, a forward and backward displacement of the piston inside the cartridge body coupled to the first portion along said longitudinal axis of the cartridge body, and wherein the second coupling means (7, 11a, 11b, 12; 7, 12, 17a, 17b) are designed in such a manner that for establishing and releasing the positive connection and/or frictional connection with the piston, their shape can reversibly be changed, characterized in that the shape of the second coupling means (7, 11a, 11b, 12) is automatically changed when the second portion is moved into the fully retracted position and/or is moved out of the fully retracted position. - a first portion having first coupling means for releasably coupling the cartridge body of the cartridge to the first portion in such a manner that in both directions of said longitudinal axis of the cartridge body there exists a positive connection and/or a frictional connection between the cartridge body and the first portion; - a second portion having second coupling means (7, 11a, 11b, 12; 7, 12, 17a, 17b) for releasably coupling the piston of the cartridge to the second portion in such a manner that in both directions of said longitudinal axis of the cartridge body there exists a positive connection and/or a frictional connection between the piston and the second portion;
A method at a wireless terminal providing communication of Network Access Stratum, NAS, messages with a network node of a wireless communication network, the method comprising: communicating a first NAS message between the wireless terminal and the network node over a first NAS connection, wherein communicating the first NAS message comprises performing integrity protection for the first NAS message using a first NAS connection identification; and performing the integrity protection for the first NAS message by generating a first message authentication code based on the first NAS connection identification, a master key of a NAS security context, and the first NAS message, and transmitting the first NAS message with the first message authentication code over the first NAS connection to the network node; communicating a second NAS message between the wireless terminal and the network node over a second NAS connection, wherein communicating the second NAS message comprises performing integrity protection for the second NAS message using a second NAS connection identification, wherein the first and second NAS connections are different and share the master key, and performing the integrity protection for the second NAS message by generating a second message authentication code based on the second NAS connection identification, the master key, and the second NAS message, and transmitting the second NAS message with the second message authentication code over the second NAS connection to the network node. communicating a first NAS message between the wireless terminal and the network node over a first NAS connection, wherein communicating the first NAS message comprises performing integrity protection for the first NAS message using a first NAS connection identification; and performing the integrity protection for the first NAS message by generating a first message authentication code based on the first NAS connection identification, a master key of a NAS security context, and the first NAS message, and transmitting the first NAS message with the first message authentication code over the first NAS connection to the network node; communicating a second NAS message between the wireless terminal and the network node over a second NAS connection, wherein communicating the second NAS message comprises performing integrity protection for the second NAS message using a second NAS connection identification, wherein the first and second NAS connections are different and share the master key, and performing the integrity protection for the second NAS message by generating a second message authentication code based on the second NAS connection identification, the master key, and the second NAS message, and transmitting the second NAS message with the second message authentication code over the second NAS connection to the network node.
Control system for a road vehicle; the system comprises: - a first joystick, which in turn comprises a first lever configured to be grasped by the right hand of a driver of the road vehicle; wherein the first joystick comprises first sensor elements for detecting a kinematic value or a force imparted by the driver to the first lever along at least a first direction and a second direction; and/or - a second joystick, which in turn comprises a second lever configured to be grasped by the left hand of the driver of the road vehicle; wherein the second joystick comprises second sensor elements for detecting the kinematic value or the force imparted by the driver to the second lever along at least the first direction and the second direction; - a control unit configured to adjust a motion of the road vehicle according to the kinematic value or the force imparted by the driver to the first lever and/or the second lever; the control system being characterised in that the control unit is configured to control: - the steering of the road vehicle as a function of the kinematic value or the force detected by the first sensor elements and/or the second sensor elements in the first direction; and - the attitude or the yaw of the road vehicle as a function of the kinematic value or the force detected by the first sensor elements and/or the second sensor elements along the second direction. - a first joystick, which in turn comprises a first lever configured to be grasped by the right hand of a driver of the road vehicle; wherein the first joystick comprises first sensor elements for detecting a kinematic value or a force imparted by the driver to the first lever along at least a first direction and a second direction; and/or - a second joystick, which in turn comprises a second lever configured to be grasped by the left hand of the driver of the road vehicle; wherein the second joystick comprises second sensor elements for detecting the kinematic value or the force imparted by the driver to the second lever along at least the first direction and the second direction; - a control unit configured to adjust a motion of the road vehicle according to the kinematic value or the force imparted by the driver to the first lever and/or the second lever; - the steering of the road vehicle as a function of the kinematic value or the force detected by the first sensor elements and/or the second sensor elements in the first direction; and - the attitude or the yaw of the road vehicle as a function of the kinematic value or the force detected by the first sensor elements and/or the second sensor elements along the second direction.
Method for producing a coating, with a material, for at least a portion of the surface of a substrate by spraying particles of said material toward the substrate to be coated by means of a vector fluid containing a compound chosen from air gases, characterized in that said vector fluid is in the liquid state, at a pressure of at least 300 bar and at a temperature below 0°C.
Combination of a helmet (1, 10), a headset device (20, 120) and a replaceable adaptor (30, 130) for attaching the headset device (20, 120) to the helmet (1, 10), wherein the adaptor (30, 130) comprises: a. when the adaptor (30, 130) is mounted at the helmet (1, 10) in its operable position, a lower portion at a lower level (17, 117), wherein the lower portion and the lower level (17, 117) are located deeper within the helmet (1, 10), relative to its external surface, having a shape conforming to the shape of a helmet cavity (15, 115) at the helmet (1, 10), the helmet cavity (15, 115) being a cavity in an exterior rigid plastic layer of the helmet (1, 10); and b. an adaptor cavity, conforming to the shape of the headset device (20, 120), which is adapted to accommodate said headset device (20, 120); wherein when a need arises to attach another headset device having a different shape or dimensions to a same helmet (1, 10), or when a need arises to replace the helmet (1, 10) by another helmet having a cavity of different shape or dimensions, said adaptor (30, 130) is replaced with another adaptor having an adaptor cavity capable of accommodating said other headset device, or having lower portion shape substantially conforming to the shape of the cavity of said other helmet, respectively, characterised in that the adaptor comprises an opening, through which an electronic connector of the helmet (1, 10) enters to mate with a respective electronic connector of the headset. a. when the adaptor (30, 130) is mounted at the helmet (1, 10) in its operable position, a lower portion at a lower level (17, 117), wherein the lower portion and the lower level (17, 117) are located deeper within the helmet (1, 10), relative to its external surface, having a shape conforming to the shape of a helmet cavity (15, 115) at the helmet (1, 10), the helmet cavity (15, 115) being a cavity in an exterior rigid plastic layer of the helmet (1, 10); and b. an adaptor cavity, conforming to the shape of the headset device (20, 120), which is adapted to accommodate said headset device (20, 120); wherein when a need arises to attach another headset device having a different shape or dimensions to a same helmet (1, 10), or when a need arises to replace the helmet (1, 10) by another helmet having a cavity of different shape or dimensions, said adaptor (30, 130) is replaced with another adaptor having an adaptor cavity capable of accommodating said other headset device, or having lower portion shape substantially conforming to the shape of the cavity of said other helmet, respectively,
An organic light-emitting diode (OLED) device, comprising: - first and second non-metallic transparent electrodes (13, 16), and one or more layers of organic material formed between the first and second non-metallic transparent electrodes (13, 16), the one or more layers of organic material including one or more light-emitting layers that emit emitted light and that emit trapped light into the first and second non-metallic transparent electrodes (13, 16) and the one or more layers of organic material; and - a non-metallic reflective layer that reflects the emitted light located on a side of the second non-metallic transparent electrode opposite to the one or more organic material layers; - a light-transmissive substrate through which the emitted light emitted by the one or more light-emitting layers is transmitted, wherein the light-transmissive substrate is located closer to the first non-metallic transparent electrode than to the second non-metallic transparent electrode; characterized in that the device further comprises: - a low-index element having an optical refractive index lower than the optical refractive index of the light-transmissive substrate and the one or more light-emitting layers; wherein the low-index element is located between the light-transmissive substrate and the first non-metallic electrode; and - a light transmissive scattering layer that scatters trapped light into emitted light external to, and in optical contact with, the organic material layers and the electrodes (13, 16) and located between the first non-metallic transparent electrode and the low-index element. - first and second non-metallic transparent electrodes (13, 16), and one or more layers of organic material formed between the first and second non-metallic transparent electrodes (13, 16), the one or more layers of organic material including one or more light-emitting layers that emit emitted light and that emit trapped light into the first and second non-metallic transparent electrodes (13, 16) and the one or more layers of organic material; and - a non-metallic reflective layer that reflects the emitted light located on a side of the second non-metallic transparent electrode opposite to the one or more organic material layers; - a light-transmissive substrate through which the emitted light emitted by the one or more light-emitting layers is transmitted, wherein the light-transmissive substrate is located closer to the first non-metallic transparent electrode than to the second non-metallic transparent electrode; - a low-index element having an optical refractive index lower than the optical refractive index of the light-transmissive substrate and the one or more light-emitting layers; wherein the low-index element is located between the light-transmissive substrate and the first non-metallic electrode; and - a light transmissive scattering layer that scatters trapped light into emitted light external to, and in optical contact with, the organic material layers and the electrodes (13, 16) and located between the first non-metallic transparent electrode and the low-index element.
Granule, characterized in that it comprises a thermoplastic elastomeric polyurethane and bitumen, in which said thermoplastic elastomeric polyurethane is obtained by reaction between: - a polyol having a functionality of between 1.75 and 2.2, preferably between 1.85 and 2.1, more preferentially between 1.95 and 2.05 and a molar mass of between 500 and 6000 g/mol, preferably between 900 and 5000 g/mol, more preferentially between 1500 and 3500 g/mol; - a diisocyanate; and - a chain-extending diol with a molar mass of less than 500 g/mol, preferably less than 400 g/mol, more preferentially less than 300 g/mol; with an NCO/OH ratio of between 0.9 and 1.02, preferably between 0.95 and 1, more preferentially between 0.97 and 0.99. - a polyol having a functionality of between 1.75 and 2.2, preferably between 1.85 and 2.1, more preferentially between 1.95 and 2.05 and a molar mass of between 500 and 6000 g/mol, preferably between 900 and 5000 g/mol, more preferentially between 1500 and 3500 g/mol; - a diisocyanate; and - a chain-extending diol with a molar mass of less than 500 g/mol, preferably less than 400 g/mol, more preferentially less than 300 g/mol;
A membrane separation process for the energy-efficient recovery of oxygen from heated fresh air using mixed-conducting membranes in vacuum operation, the fresh air being discharged as exhaust air after separation of the oxygen, characterised in that - at least 85% of the thermal energy required to heat the fresh air is obtained by using the waste heat of the exhaust air and/or the oxygen recovered, - the remaining heating of the fresh air is achieved by external energy supply and - in order to achieve an energy-efficient mode of operation, the air flow rate is controlled in such a way that the oxygen partial pressure in the exhaust air is not more than 100 mbar above the vacuum pressure on the permeate side and the ratio of the volume flows of fresh air quantity to produced oxygen quantity is set to be within the limits 6: 1 and 25: 1. - at least 85% of the thermal energy required to heat the fresh air is obtained by using the waste heat of the exhaust air and/or the oxygen recovered, - the remaining heating of the fresh air is achieved by external energy supply and - in order to achieve an energy-efficient mode of operation, the air flow rate is controlled in such a way that the oxygen partial pressure in the exhaust air is not more than 100 mbar above the vacuum pressure on the permeate side and the ratio of the volume flows of fresh air quantity to produced oxygen quantity is set to be within the limits 6: 1 and 25: 1.