mhurhangee/patent-ind-claim-en huggingface dataset:
Battery cell for storing electrical energy, wherein the battery cell has the following features: an outer shell (104; 200) which surrounds the battery cell ; and a device for transmitting an information item from the battery cell , wherein the device has the following features: a first transmitter which is arranged on an inner side of an outer shell (104; 200) of the battery cell , wherein the first transmitter is designed to emit a signal representing the information item through the outer shell (104; 200) of the battery cell ; and a second transmitter which is arranged on an outer side of the outer shell (104; 200) of the battery cell and is galvanically isolated from the first transmitter , wherein the second transmitter is designed to pick up the signal , wherein the second transmitter is designed to emit a further signal representing a further information item through the outer shell (104; 200) of the battery cell , and the first transmitter is designed to pick up the further signal , wherein the first transmitter is arranged directly on the outer shell (104; 200) of the battery cell and/or the second transmitter is arranged directly on the outer shell (104; 200) of the battery cell , and the second transmitter is arranged directly opposite the first transmitter on the outer side of the outer shell (104; 200) of the battery cell . an outer shell (104; 200) which surrounds the battery cell ; and a device for transmitting an information item from the battery cell , wherein the device has the following features: a first transmitter which is arranged on an inner side of an outer shell (104; 200) of the battery cell , wherein the first transmitter is designed to emit a signal representing the information item through the outer shell (104; 200) of the battery cell ; and a second transmitter which is arranged on an outer side of the outer shell (104; 200) of the battery cell and is galvanically isolated from the first transmitter , wherein the second transmitter is designed to pick up the signal , a first transmitter which is arranged on an inner side of an outer shell (104; 200) of the battery cell , wherein the first transmitter is designed to emit a signal representing the information item through the outer shell (104; 200) of the battery cell ; and a second transmitter which is arranged on an outer side of the outer shell (104; 200) of the battery cell and is galvanically isolated from the first transmitter , wherein the second transmitter is designed to pick up the signal , wherein the second transmitter is designed to emit a further signal representing a further information item through the outer shell (104; 200) of the battery cell , and the first transmitter is designed to pick up the further signal , wherein the first transmitter is arranged directly on the outer shell (104; 200) of the battery cell and/or the second transmitter is arranged directly on the outer shell (104; 200) of the battery cell , and the second transmitter is arranged directly opposite the first transmitter on the outer side of the outer shell (104; 200) of the battery cell .
A method of collecting plasma fractions from whole blood, said method comprising: rotating a separation vessel ; separating plasma from other blood components of the whole blood in the rotating separation vessel ; providing separated plasma from the rotating separation vessel to a plasma separator ; separating the plasma into at least one fraction including plasma proteins using the plasma separator ; collecting the at least one fraction; characterised by : determining the ratio of the volume of separated plasma provided to the plasma separator in the providing step to the volume of the at least one fraction in the collecting step to determine a volume ratio; and predicting the concentration ratio of the plasma proteins in the at least one fraction from the volume ratio. rotating a separation vessel ; separating plasma from other blood components of the whole blood in the rotating separation vessel ; providing separated plasma from the rotating separation vessel to a plasma separator ; separating the plasma into at least one fraction including plasma proteins using the plasma separator ; collecting the at least one fraction; characterised by : determining the ratio of the volume of separated plasma provided to the plasma separator in the providing step to the volume of the at least one fraction in the collecting step to determine a volume ratio; and predicting the concentration ratio of the plasma proteins in the at least one fraction from the volume ratio. determining the ratio of the volume of separated plasma provided to the plasma separator in the providing step to the volume of the at least one fraction in the collecting step to determine a volume ratio; and predicting the concentration ratio of the plasma proteins in the at least one fraction from the volume ratio.
A masking sheet for anodizing, the masking sheet comprising a substrate having first and second faces, and a pressure-sensitive adhesive layer placed on the first face side of the substrate, wherein the substrate is a non-metal substrate, and the masking sheet has an elastic modulus Et' and the substrate has a thickness Hs, satisfying the next relation 0.7 N·mm < Et'·Hs 3 , wherein the elastic modulus Et' is determined using a dynamic viscoelastometer (RSA-III available from TA Instruments) in a tension mode, at a chuck distance of 23 mm, a heating rate of 10 °C/min, a frequency of 1 Hz and a strain of 0.05 %, wherein the elastic modulus Et' of the masking sheet is 1.0 GPa or greater, wherein the pressure-sensitive adhesive layer is formed of a rubber-based pressure-sensitive adhesive, wherein the substrate has a thickness Hs of 0.05 mm or more and 0.30 mm or less. a substrate having first and second faces, and a pressure-sensitive adhesive layer placed on the first face side of the substrate, the substrate is a non-metal substrate, and the masking sheet has an elastic modulus Et' and the substrate has a thickness Hs, satisfying the next relation 0.7 N·mm < Et'·Hs 3 , wherein the elastic modulus Et' is determined using a dynamic viscoelastometer (RSA-III available from TA Instruments) in a tension mode, at a chuck distance of 23 mm, a heating rate of 10 °C/min, a frequency of 1 Hz and a strain of 0.05 %, wherein the elastic modulus Et' of the masking sheet is 1.0 GPa or greater, wherein the pressure-sensitive adhesive layer is formed of a rubber-based pressure-sensitive adhesive, wherein the substrate has a thickness Hs of 0.05 mm or more and 0.30 mm or less. wherein the elastic modulus Et' is determined using a dynamic viscoelastometer (RSA-III available from TA Instruments) in a tension mode, at a chuck distance of 23 mm, a heating rate of 10 °C/min, a frequency of 1 Hz and a strain of 0.05 %, wherein the elastic modulus Et' of the masking sheet is 1.0 GPa or greater, wherein the pressure-sensitive adhesive layer is formed of a rubber-based pressure-sensitive adhesive, wherein the substrate has a thickness Hs of 0.05 mm or more and 0.30 mm or less.
A water valve assembly (2; 102),comprising: user actuation means (6; 106) to allow actuation of the water valve assembly (2; 102); and control means (8; 108) to allow control and/or adjustment of the temperature of the water being dispensed from the water valve assembly (2; 102); wherein biometric recognition means are provided on or associated with the water valve assembly (2; 102); and characterised in that the biometric recognition means are arranged such that dispensing of water above a pre-determined temperature threshold requires positive or successful recognition by the biometric recognition means , and further characterised in that dispensing of water from the water valve assembly (2; 102) wherein the water is below a pre-determined temperature threshold does not require use of the biometric recognition means when the user actuation means (6; 106) is in an "on" condition. user actuation means (6; 106) to allow actuation of the water valve assembly (2; 102); and control means (8; 108) to allow control and/or adjustment of the temperature of the water being dispensed from the water valve assembly (2; 102); wherein biometric recognition means are provided on or associated with the water valve assembly (2; 102); and characterised in that the biometric recognition means are arranged such that dispensing of water above a pre-determined temperature threshold requires positive or successful recognition by the biometric recognition means , and further characterised in that dispensing of water from the water valve assembly (2; 102) wherein the water is below a pre-determined temperature threshold does not require use of the biometric recognition means when the user actuation means (6; 106) is in an "on" condition.
A device for embedding a balloon arranged on a catheter in an implant having an open-work structure, said device - comprising a heating element and - comprising an embedding mould for arrangement in the heating element , wherein the embedding mould has a cylindrical cavity , which is dimensioned in such a way that an assembly consisting of the catheter with balloon and of the implant mounted on the outer side of the balloon can be arranged in the cavity of the embedding mould , wherein a protective film is provided between an inner wall of the cavity of the embedding mould and the assembly, characterised in that the width (B) of the strip-like protective film is greater than the circumference of the cavity of the embedding mould . - comprising a heating element and - comprising an embedding mould for arrangement in the heating element , wherein the embedding mould has a cylindrical cavity , which is dimensioned in such a way that an assembly consisting of the catheter with balloon and of the implant mounted on the outer side of the balloon can be arranged in the cavity of the embedding mould , wherein a protective film is provided between an inner wall of the cavity of the embedding mould and the assembly, characterised in that the width (B) of the strip-like protective film is greater than the circumference of the cavity of the embedding mould .
A crystal form A of the compound of formula (I), wherein the X-ray powder diffraction pattern (XPRD) of the crystal form A comprises characteristic diffraction peaks at the following angles of 2θ: 8.60±0.2°, 15.06±0.2° and 17.22±0.2°;
A computing system, comprising: a policy engine configured to: receive a role identifier identifying a role that represents a service to be hosted by an execution environment, receive a virtual machine, VM, image measurement indicative of a virtual machine image deployed in the execution environment , and determine, based on a measurement-to-role mapping, whether the VM image measurement is mapped to the role, and generates an evaluation signal indicative of the determination; a key wrapping cryptographic engine configured to: based on the evaluation signal indicating that the VM image measurement is mapped to the role, wrap a set of role keys that: correspond to the role, and enable the execution environment to execute the service; and a key service configured to provide the execution environment with the set of wrapped role keys. a policy engine configured to: receive a role identifier identifying a role that represents a service to be hosted by an execution environment, receive a virtual machine, VM, receive a role identifier identifying a role that represents a service to be hosted by an execution environment, receive a virtual machine, VM, image measurement indicative of a virtual machine image deployed in the execution environment , and determine, based on a measurement-to-role mapping, whether the VM image measurement is mapped to the role, and generates an evaluation signal indicative of the determination; a key wrapping cryptographic engine configured to: based on the evaluation signal indicating that the VM image measurement is mapped to the role, wrap a set of role keys that: correspond to the role, and enable the execution environment to execute the service; and a key service configured to provide the execution environment with the set of wrapped role keys.
Method for fastening a component to a base element consisting in particular of metal or an alloy, in which a blind hole , defining a depth direction , with a force transfer surface of surface area A is created in the base element , said blind hole having a depth T in the depth direction where T < 10 mm, in particular T < 8 mm, in particular T < 6 mm, in particular T < 4 mm, wherein the force transfer surface is frustoconical with a half cone opening angle β of 0° to 20° and a mean diameter d, wherein the blind hole has a conical blind-hole bottom with a cone opening angle α of 88° to 138° or of 141°, in particular of 98° to 138°, and has, at its edge, a chamfer extending in the depth direction to a chamfer depth L of 0 mm to 2 mm, in particular 0 mm to 0.5 mm, wherein the mean diameter d of the force transfer surface is greater than or equal to the depth T and is at least d = 1 − k T − L tan α 2 and at most d = 1 + k T − L tan α 2 with a maximum surface tolerance k, wherein k = 0.3, in particular k = 0.2, in particular k = 0.1, wherein, in the method, a fastening element is anchored in the blind hole via the force transfer surface , and wherein the component is held by the fastening element .
A real-time detection/recovery system in case of a power line failure in a power distribution system, for preventing a power outage, an electric shock or a fire accident caused by a disconnection, a resistance increase, a loose contact, a partial disconnection or an electric leakage occurring on a power supply side of a power distribution system, the detection/recovery system comprising a power supply side detection/recovery device and a load side detection/recovery device in the power distribution system, characterized in that the power supply side detection/recovery device performs any one or more among recovery, cutoff, alert, notification and control in case of an open phase, a disconnection, a loose contact or a resistance increase in a power supply line of a single-phase or three-phase power supply by configuring a first neutral point (N1) in the middle of a power output coil (L3, L4) and grounding the first neutral point (N1) to the earth (E) or detecting a potential difference between the first neutral point (N1) and the earth (E), and the load side detection/recovery device performs any one or more among recovery, cutoff, alert, notification and control in case of an open phase, a disconnection, a loose contact or a resistance increase in the power supply line of the single-phase or three-phase power supply by configuring a second neutral point (N2) in the middle of another power output coil (L1, L2) and grounding the second neutral point (N2) to the earth (E), connecting the second neutral point (N2) to the first neutral point (N1) of the power supply side detection/recovery device , or detecting a potential difference between the second neutral point (N2) and the earth (E). the power supply side detection/recovery device performs any one or more among recovery, cutoff, alert, notification and control in case of an open phase, a disconnection, a loose contact or a resistance increase in a power supply line of a single-phase or three-phase power supply by configuring a first neutral point (N1) in the middle of a power output coil (L3, L4) and grounding the first neutral point (N1) to the earth (E) or detecting a potential difference between the first neutral point (N1) and the earth (E), and the load side detection/recovery device performs any one or more among recovery, cutoff, alert, notification and control in case of an open phase, a disconnection, a loose contact or a resistance increase in the power supply line of the single-phase or three-phase power supply by configuring a second neutral point (N2) in the middle of another power output coil (L1, L2) and grounding the second neutral point (N2) to the earth (E), connecting the second neutral point (N2) to the first neutral point (N1) of the power supply side detection/recovery device , or detecting a potential difference between the second neutral point (N2) and the earth (E).
A method for uplink transmission configured to operate in a third Generation Partnership Project, 3GPP, communication system, the method performed by a wireless device operating in an unlicensed band and comprising: receiving , from a base station, a semi-persistent scheduling, SPS, configuration for configuring SPS transmission in which the wireless device performs uplink transmission in accordance with the SPS configuration, the SPS configuration including an SPS window period of an SPS window and a number of allocated slots in which the uplink transmission is allowed in the SPS window; randomly selecting at least one hybrid automatic repeat request process identifier, HARQ-ID, for at least one uplink channel to be transmitted in the SPS window, wherein the at least one HARQ-ID for the at least one uplink channel is selected among a plurality of HARQ-IDs which are pre-allocated by the base station; performing listen before talk, LBT, to check that the unlicensed band is idle in the allocated slots of the SPS window; and transmitting , to the base station, the at least one uplink channel in at least one slot of the allocated slots of the SPS window after confirming that the unlicensed band is idle, wherein the at least one uplink channel includes the at least one selected HARQ-ID. receiving , from a base station, a semi-persistent scheduling, SPS, configuration for configuring SPS transmission in which the wireless device performs uplink transmission in accordance with the SPS configuration, the SPS configuration including an SPS window period of an SPS window and a number of allocated slots in which the uplink transmission is allowed in the SPS window; randomly selecting at least one hybrid automatic repeat request process identifier, HARQ-ID, for at least one uplink channel to be transmitted in the SPS window, wherein the at least one HARQ-ID for the at least one uplink channel is selected among a plurality of HARQ-IDs which are pre-allocated by the base station; performing listen before talk, LBT, to check that the unlicensed band is idle in the allocated slots of the SPS window; and transmitting , to the base station, the at least one uplink channel in at least one slot of the allocated slots of the SPS window after confirming that the unlicensed band is idle, wherein the at least one uplink channel includes the at least one selected HARQ-ID.
Printed circuit board arrangement having: - a printed circuit board with a top side and a bottom side , - at least one electrical module with a top side and a bottom side , which is arranged with its top side on the bottom side of the printed circuit board , - a heat sink , - means for providing a pressure with which the electrical module is pressed with its bottom side against the heat sink , and - a thermally conductive material arranged between the bottom side of the electrical module and the heat sink , characterized in that the at least one electrical module is embedded in a potting material which is flush with the bottom side of the electrical module without covering the bottom side , wherein the potting material is provided and formed to press the thermally conductive material against the heat sink adjacent to the at least one electrical module . - a printed circuit board with a top side and a bottom side , - at least one electrical module with a top side and a bottom side , which is arranged with its top side on the bottom side of the printed circuit board , - a heat sink , - means for providing a pressure with which the electrical module is pressed with its bottom side against the heat sink , and - a thermally conductive material arranged between the bottom side of the electrical module and the heat sink ,
A spine for use in an electrode assembly of an electrophysiologic catheter comprising a flexible core that extends through a length of the spine, a polymeric cover coaxially disposed over the flexible core and a plurality of electrodes distributed longitudinally along the spine over the polymeric cover, wherein each electrode has at least one associated lead that extends to a proximal end of the spine characterised in that an amount of material comprising the spine is adjusted longitudinally along the spine to compensate for changes in flexibility to the spine caused by varying numbers of electrode leads present at different relative longitudinal positions along the spine.
A method for starting, by a first local application on a terminal, a second local application on the terminal, the second local application being configured for starting a local socket, the method comprising: opening (S110), by the first local application, an HTML5 web page, wherein when a link to the web page is triggered to open the web page, the first local application assembles parameters comprised in a web page address into a URI, and invokes the second local application corresponding to the URI; starting (S110), by the first local application, a webSocket to attempt to connect to the local socket; starting (S120) the local socket by the second local application, if the second local application is installed on the terminal, if the first local application connects to the local socket by using the webSocket it can be determined that the second local application has been invoked so the first local application does not jump to a boot page for downloading the second local application, the local socket further being used for bi-directional communication between the first local application and the second local application; and if the first local application fails to connect to the local socket by using the webSocket the first application jumps to the boot page for downloading the second local application. opening (S110), by the first local application, an HTML5 web page, wherein when a link to the web page is triggered to open the web page, the first local application assembles parameters comprised in a web page address into a URI, and invokes the second local application corresponding to the URI; starting (S110), by the first local application, a webSocket to attempt to connect to the local socket; starting (S120) the local socket by the second local application, if the second local application is installed on the terminal, if the first local application connects to the local socket by using the webSocket it can be determined that the second local application has been invoked so the first local application does not jump to a boot page for downloading the second local application, the local socket further being used for bi-directional communication between the first local application and the second local application; and if the first local application fails to connect to the local socket by using the webSocket the first application jumps to the boot page for downloading the second local application.
An implant for replacing bone or cartilage material, which is constituted by a plurality of elements (B, B1, B2, B3, B4, B5, B6, B7) produced from a non-metallic, linearly elastic material, an element (B, B1, B2, B3, B4, B5, B6, B7) being connected to adjacent elements (B, B1, B2, B3, B4, B5, B6, B7) by a viscoelastic polymer material such that gaps (L) remain between the adjacent elements (B, B1, B2, B3, B4, B5, B6, B7) and that the adjacent elements (B, B1, B2, B3, B4, B5, B6, B7) can move relative to one another, the gaps (L) being used to accommodate cell material or bioactive material in the applied state, wherein the polymer material is selected from the following group: epoxy resin, preceramic polymers, silicone rubber, polylactide, polycaprolactone, polymethylmethacrylates, polylactide-co-glycolide (PLGA), polyhydroxyalkanoates (PHBHHX), fibrin, butyrates, silk, chitosan, wherein the polymer material forms a polymer layer (PS) which overlays the elements (B, B1, B2, B3, B4, B5, B6, B7) and is attached to the upper side (O) of the elements (B, B1, B2, B3, B4, B5, B6, B7), and wherein the polymer layer (PS) has apertures (D).