mhurhangee/patent-ind-claim-en huggingface dataset:
Internal combustion engine power unit having an internal combustion engine which comprises a cylinder housing and a cylinder head and having a cooling system which comprises - a coolant pump , - a coolant radiator , - a heater core , - a radiator bypass bypassing the coolant radiator , - coolant channels in the cylinder housing and in the cylinder head , and - a distribution device having an actuator for distributing a coolant, wherein the distribution device is designed such that - in a first position , it sends a coolant stream coming from the cylinder head exclusively through the heater core and then through the radiator bypass ; - in a second position , it sends a portion of the coolant stream coming from the cylinder head through the radiator bypass while bypassing the heater core ; - in a third position , in addition to the second position , it allows a coolant stream to flow through the cylinder housing , and - in a fourth position differing from the third position , it sends all of the coolant arriving at the distribution device through the coolant radiator . - a coolant pump , - a coolant radiator , - a heater core , - a radiator bypass bypassing the coolant radiator , - coolant channels in the cylinder housing and in the cylinder head , and - a distribution device having an actuator for distributing a coolant, wherein the distribution device is designed such that - in a first position , it sends a coolant stream coming from the cylinder head exclusively through the heater core and then through the radiator bypass ; - in a second position , it sends a portion of the coolant stream coming from the cylinder head through the radiator bypass while bypassing the heater core ; - in a third position , in addition to the second position , it allows a coolant stream to flow through the cylinder housing , and - in a fourth position differing from the third position , it sends all of the coolant arriving at the distribution device through the coolant radiator .
A method for producing a lyophilized polypeptide composition comprising: combining a polypeptide with a volatile additive to form a liquid mixture and lyophilizing the liquid mixture to obtain a lyophilized polypeptide composition, wherein the liquid mixture comprises 0.5% to 5% by volume of volatile additive, and the volatile additive is t-butanol.
An audio sound signal encoding device comprising: a converter that adds up all multiple channel signals included in multichannel voice sound input signals to generate an addition signal and generates a difference signal between channels of the multiple channel signals; a first encoder that encodes the addition signal to generate first encoded data; a second encoder (122-124) that encodes the difference signal to generate second encoded data; characterized by the first encoder determining a coding mode in accordance with a characteristic of the addition signal and encoding the addition signal in the determined coding mode; the second encoder (122-124) encoding the difference signal in the coding mode that was used for encoding the addition signal; and a multiplexer that multiplexes the first encoded data and the second encoded data to generate multichannel encoded data. a converter that adds up all multiple channel signals included in multichannel voice sound input signals to generate an addition signal and generates a difference signal between channels of the multiple channel signals; a first encoder that encodes the addition signal to generate first encoded data; a second encoder (122-124) that encodes the difference signal to generate second encoded data; characterized by the first encoder determining a coding mode in accordance with a characteristic of the addition signal and encoding the addition signal in the determined coding mode; the second encoder (122-124) encoding the difference signal in the coding mode that was used for encoding the addition signal; and a multiplexer that multiplexes the first encoded data and the second encoded data to generate multichannel encoded data.
Electric shaver , comprising an elongated housing receiving an electric motor and/or an electric power source, a working head attached to said housing , wherein said housing includes an elongated base element and a cover element closing said base element and surrounding a connection connecting said electric motor and/or said electric power source to said working head , wherein said cover element is sealed to said base element and/or to said connection by at least one seal , wherein said at least one seal is integrally molded onto said cover element , said seal and said cover element forming an integral one-piece structure made from a soft-material component forming the seal and a hard-material component forming the cover element characterized in that said seal includes at least two sealing elements positioned on opposite end portions of said cover element , each of said sealing elements being integrally molded onto the cover element to form an integral one-piece structure thereof made from a soft-material component forming the sealing elements and a hard-material component forming the cover element .
A method of anchoring a connector in a first object , wherein the first object is a lightweight building element having a first outer building layer (1.1) and an interlining layer (1.3), the first outer building layer (1.1) being thinner and more dense than the interlining layer (1.3), wherein the connector comprises thermoplastic material in a solid state, the method comprising the steps of: - Bringing a distally facing surface portion (3.4) of the connector into contact with an attachment location of the first outer building layer (1.1); - Simultaneously coupling a first pressing force and mechanical vibration energy into the connector until the first outer building layer (1.1) is pierced by the connector at the attachment location or in a vicinity thereof; - Applying a second pressing force to the connector and transferring energy to the connector, and thereby moving the connector into a distal direction relative to the first object until a flow portion (3.8) of the thermoplastic material has liquefied and flowed to interpenetrate structures of the interlining layer (1.3); - Stopping the energy transfer and allowing the flow portion (3.8) to re-solidify. - Bringing a distally facing surface portion (3.4) of the connector into contact with an attachment location of the first outer building layer (1.1); - Simultaneously coupling a first pressing force and mechanical vibration energy into the connector until the first outer building layer (1.1) is pierced by the connector at the attachment location or in a vicinity thereof; - Applying a second pressing force to the connector and transferring energy to the connector, and thereby moving the connector into a distal direction relative to the first object until a flow portion (3.8) of the thermoplastic material has liquefied and flowed to interpenetrate structures of the interlining layer (1.3); - Stopping the energy transfer and allowing the flow portion (3.8) to re-solidify.
An antimicrobial medical device comprising: a fluid transfer device configured to couple between a patient and a fluid reservoir, the fluid transfer device comprising: a housing having an internal cavity ; and a valve disposed within the internal cavity ; a fluid pathway extending through the fluid transfer device, wherein the fluid pathway extends through the housing ; and characterized by : a plurality of first annular electrodes coupled to the fluid pathway and disposed around the valve , the plurality of first annular electrodes comprising a first conductive material; and a second annular electrode coupled to the fluid pathway and interposed between the plurality of first annular electrodes , the second annular electrode comprising a second conductive material different from the first conductive material and being configured to form at least one galvanic cell with the plurality of first annular electrodes . a fluid transfer device configured to couple between a patient and a fluid reservoir, the fluid transfer device comprising: a housing having an internal cavity ; and a valve disposed within the internal cavity ; a fluid pathway extending through the fluid transfer device, wherein the fluid pathway extends through the housing ; and characterized by : a plurality of first annular electrodes coupled to the fluid pathway and disposed around the valve , the plurality of first annular electrodes comprising a first conductive material; and a second annular electrode coupled to the fluid pathway and interposed between the plurality of first annular electrodes , the second annular electrode comprising a second conductive material different from the first conductive material and being configured to form at least one galvanic cell with the plurality of first annular electrodes . a plurality of first annular electrodes coupled to the fluid pathway and disposed around the valve , the plurality of first annular electrodes comprising a first conductive material; and a second annular electrode coupled to the fluid pathway and interposed between the plurality of first annular electrodes , the second annular electrode comprising a second conductive material different from the first conductive material and being configured to form at least one galvanic cell with the plurality of first annular electrodes .
A curable formulation comprising: a mono-functional curable material, in an amount of from 50 to 89 weight percents, of the total weight of the formulation; a non-curable polymeric material, in an amount ranging from 10 to 49 weight percents, of the total weight of the formulation; and a multi-functional curable material, in an amount ranging from 1 to 10 weight percents, of the total weight of the formulation; wherein: (i) said non-curable polymeric material features a molecular weight of at least 1000, or at least 1500 or at least 2000 Daltons; and/or (ii) said non-curable polymeric material features a Tg lower than 0, or lower than -10, or lower than -20, °C; and/or (iii) at least 80 weight percents of the total amount of said mono-functional and said multi-functional curable materials include curable materials featuring, when hardened, a Tg lower than 0, or lower than -10, or lower than -20, °C, the formulation featuring, when hardened, a Shore A hardness lower than 10 or a Shore 00 hardness lower than 40. a mono-functional curable material, in an amount of from 50 to 89 weight percents, of the total weight of the formulation; a non-curable polymeric material, in an amount ranging from 10 to 49 weight percents, of the total weight of the formulation; and a multi-functional curable material, in an amount ranging from 1 to 10 weight percents, of the total weight of the formulation; wherein: (i) said non-curable polymeric material features a molecular weight of at least 1000, or at least 1500 or at least 2000 Daltons; and/or (ii) said non-curable polymeric material features a Tg lower than 0, or lower than -10, or lower than -20, °C; and/or (iii) at least 80 weight percents of the total amount of said mono-functional and said multi-functional curable materials include curable materials featuring, when hardened, a Tg lower than 0, or lower than -10, or lower than -20, °C, (i) said non-curable polymeric material features a molecular weight of at least 1000, or at least 1500 or at least 2000 Daltons; and/or (ii) said non-curable polymeric material features a Tg lower than 0, or lower than -10, or lower than -20, °C; and/or (iii) at least 80 weight percents of the total amount of said mono-functional and said multi-functional curable materials include curable materials featuring, when hardened, a Tg lower than 0, or lower than -10, or lower than -20, °C, the formulation featuring, when hardened, a Shore A hardness lower than 10 or a Shore 00 hardness lower than 40.
An electroconductive filler comprising: powder and granules of a glass fiber, wherein the glass fiber is equipped with a metal coating in a longitudinal direction thereof, wherein the glass fiber has a fiber length distribution, wherein L10 (a fiber length at 10% in a number-basis cumulative distribution) is 20 μm to 200 μm, wherein L97 (a fiber length at 97% in a number-basis cumulative distribution) is 400 μm to 1000 μm, and wherein a glass fiber mean fiber diameter which is obtained by B-method of JIS R 3420 is 1 to 40 μm. powder and granules of a glass fiber, wherein the glass fiber is equipped with a metal coating in a longitudinal direction thereof, wherein the glass fiber has a fiber length distribution, wherein L10 (a fiber length at 10% in a number-basis cumulative distribution) is 20 μm to 200 μm, wherein L97 (a fiber length at 97% in a number-basis cumulative distribution) is 400 μm to 1000 μm, and wherein a glass fiber mean fiber diameter which is obtained by B-method of JIS R 3420 is 1 to 40 μm.
A method for switching a bandwidth part, comprising: switching a parameter of a Medium Access Control, MAC, layer from a first parameter to a second parameter when a first bandwidth part is switched to a second bandwidth part at a physical layer, wherein the first parameter corresponds to the first bandwidth part and the second parameter corresponds to the second bandwidth part (S110); and performing an operation corresponding to the MAC layer according to the second parameter (S120); wherein, the second parameter comprises a physical downlink control channel, PDCCH, monitoring resource parameter; wherein, the switching the parameter of the MAC layer from the first parameter to the second parameter comprises: receiving, at the MAC layer, an identifier of the second bandwidth part from the physical layer after the first bandwidth part is switched to the second bandwidth part at the physical layer; and switching the parameter of the MAC layer from the first parameter to the second parameter according to the identifier of the second bandwidth part; wherein the first bandwidth part is switched to the second bandwidth part at the physical layer, comprising: switching the first bandwidth part to the second bandwidth part at the physical layer according to a preset cycle. switching a parameter of a Medium Access Control, MAC, layer from a first parameter to a second parameter when a first bandwidth part is switched to a second bandwidth part at a physical layer, wherein the first parameter corresponds to the first bandwidth part and the second parameter corresponds to the second bandwidth part (S110); and performing an operation corresponding to the MAC layer according to the second parameter (S120); wherein, the second parameter comprises a physical downlink control channel, PDCCH, monitoring resource parameter; wherein, the switching the parameter of the MAC layer from the first parameter to the second parameter comprises: receiving, at the MAC layer, an identifier of the second bandwidth part from the physical layer after the first bandwidth part is switched to the second bandwidth part at the physical layer; and switching the parameter of the MAC layer from the first parameter to the second parameter according to the identifier of the second bandwidth part; wherein the first bandwidth part is switched to the second bandwidth part at the physical layer, comprising: switching the first bandwidth part to the second bandwidth part at the physical layer according to a preset cycle. receiving, at the MAC layer, an identifier of the second bandwidth part from the physical layer after the first bandwidth part is switched to the second bandwidth part at the physical layer; and switching the parameter of the MAC layer from the first parameter to the second parameter according to the identifier of the second bandwidth part; wherein the first bandwidth part is switched to the second bandwidth part at the physical layer, comprising: switching the first bandwidth part to the second bandwidth part at the physical layer according to a preset cycle.
A sample pump device that comprises: a flexible pouch that comprises front and rear panels , wherein a first portion of the front and rear panels are sealed to each other to define a reservoir inside the flexible pouch for holding a flowable product (P); a rigid frame that comprises a stem , wherein a second portion of the front and rear panels are sealed against the rigid frame, such that the stem depends into the product reservoir ; a stem attachment that comprises: a hollow vertical shaft that depends from the stem , and a cup that depends from the hollow vertical shaft and extends laterally across the width of the flexible pouch ; a passageway passes through the vertical shaft , and terminates in an uptake orifice ; a mechanical pump that is housed in the rigid frame , and that is able to draw product (P) from the product reservoir through uptake orifice , and move it toward an actuator that connects to the top of the mechanical pump , outside of the flexible pouch . a flexible pouch that comprises front and rear panels , wherein a first portion of the front and rear panels are sealed to each other to define a reservoir inside the flexible pouch for holding a flowable product (P); a rigid frame that comprises a stem , wherein a second portion of the front and rear panels are sealed against the rigid frame, such that the stem depends into the product reservoir ; a stem attachment that comprises: a hollow vertical shaft that depends from the stem , and a cup that depends from the hollow vertical shaft and extends laterally across the width of the flexible pouch ; a passageway passes through the vertical shaft , and terminates in an uptake orifice ; a hollow vertical shaft that depends from the stem , and a cup that depends from the hollow vertical shaft and extends laterally across the width of the flexible pouch ; a passageway passes through the vertical shaft , and terminates in an uptake orifice ; a mechanical pump that is housed in the rigid frame , and that is able to draw product (P) from the product reservoir through uptake orifice , and move it toward an actuator that connects to the top of the mechanical pump , outside of the flexible pouch .
Tool comprising a cartridge wherein an RFID chip is received encapsulated, wherein the cartridge is held within a blind bore of the tool , wherein the cartridge is held within the blind bore by means of a housing surrounding the cartridge , characterized in that the tool is configured for working metallic workpieces by cutting, that the housing is configured pot-shaped having a receiving section for receiving the cartridge consisting of plastic within a region of a bottom within the housing , and in that a strutting section follows the receiving section , the strutting section allowing an elastic deformation of the housing for a direct fixation of the housing by means of pressing into the blind bore or by means of an additional element. wherein the cartridge is held within a blind bore of the tool , wherein the cartridge is held within the blind bore by means of a housing surrounding the cartridge , characterized in that the tool is configured for working metallic workpieces by cutting, that the housing is configured pot-shaped having a receiving section for receiving the cartridge consisting of plastic within a region of a bottom within the housing , and in that a strutting section follows the receiving section , the strutting section allowing an elastic deformation of the housing for a direct fixation of the housing by means of pressing into the blind bore or by means of an additional element.
A sealing assembly comprising: a housing adapted to be arranged on and cover an end of a first component of a robot and comprising a circumferential coupling section ; a flange adapted to be arranged on and cover an end of a second component of the robot that is coaxially rotatable relative to the first component , so that at least the circumferential coupling section of the housing abuts and surrounds the flange coaxially; and an elastic sealing ring comprising: a coupling portion coupled to the circumferential coupling section ; and a sealing portion arranged between the housing and the flange with an interference fit, the sealing portion is of a shape configured to match shapes of the housing and the flange to enable a seamless transition from the housing to the flange . a housing adapted to be arranged on and cover an end of a first component of a robot and comprising a circumferential coupling section ; a flange adapted to be arranged on and cover an end of a second component of the robot that is coaxially rotatable relative to the first component , so that at least the circumferential coupling section of the housing abuts and surrounds the flange coaxially; and an elastic sealing ring comprising: a coupling portion coupled to the circumferential coupling section ; and a sealing portion arranged between the housing and the flange with an interference fit, the sealing portion is of a shape configured to match shapes of the housing and the flange to enable a seamless transition from the housing to the flange . a coupling portion coupled to the circumferential coupling section ; and a sealing portion arranged between the housing and the flange with an interference fit, the sealing portion is of a shape configured to match shapes of the housing and the flange to enable a seamless transition from the housing to the flange .
A magneto-optical light modulator for modulating light based on a physical property provided as an input to the modulator , the modulator comprising a substrate with a region of material comprising a film of Eu (1-x) Sr (x) MO 3 , 0<x<1, an optical waveguide (106; 108) adapted for directing light through the region of material and a first control unit, the first control unit being adapted to - maintain the region of material at a constant predefined temperature in case the physical property is an input magnetic field subject to the region of material or - maintain the region of material subjected to a constant predefined magnetic field in case the physical property is an input temperature of the region of material , the light modulator being adapted to perform the modulation of the light using the birefringence of the region of material , the birefringence depending on the physical property, M being anyone of the following metals: Ti, Hf, Zr, Th. - maintain the region of material at a constant predefined temperature in case the physical property is an input magnetic field subject to the region of material or - maintain the region of material subjected to a constant predefined magnetic field in case the physical property is an input temperature of the region of material , the light modulator being adapted to perform the modulation of the light using the birefringence of the region of material , the birefringence depending on the physical property, M being anyone of the following metals: Ti, Hf, Zr, Th.