mhurhangee/patent-ind-claim-en huggingface dataset:
An environment control system (ECS) comprising: an air cycle machine including a turbine and a compressor ; and an ozone converter coupled to the turbine and surrounding a portion of the turbine ; wherein the ozone converter includes: a toroidal shaped inlet housing , the toroidal shaped inlet housing configured such that air entering the toroidal shaped inlet housing travels in a circular path; an outlet housing that is removably coupled to the inlet housing ; and a ring shaped ozone removing core disposed at least partially within the inlet housing . an air cycle machine including a turbine and a compressor ; and an ozone converter coupled to the turbine and surrounding a portion of the turbine ; wherein the ozone converter includes: a toroidal shaped inlet housing , the toroidal shaped inlet housing configured such that air entering the toroidal shaped inlet housing travels in a circular path; an outlet housing that is removably coupled to the inlet housing ; and a ring shaped ozone removing core disposed at least partially within the inlet housing . a toroidal shaped inlet housing , the toroidal shaped inlet housing configured such that air entering the toroidal shaped inlet housing travels in a circular path; an outlet housing that is removably coupled to the inlet housing ; and a ring shaped ozone removing core disposed at least partially within the inlet housing .
Battery unit , notably for a hybrid and/or electric motor vehicle, comprising, on the one hand, a plurality of battery cells or elements, if necessary grouped together physically and/or electrically in several blocks or modules , on the other hand, a housing accommodating and surrounding said cells or elements and, finally, means for regulating the temperature of said cells or elements by circulation of heat-transfer fluid, said battery unit being characterized in that the housing is made of a plastic material and consists of a molded bottom tray , with a bottom and lateral walls (6") forming the body (6', 6") of the tray , and of a top cover , which are assembled peripherally, preferentially by screwing, in that at least the tray comprises means for distributing and collecting and circulating the heat-transfer fluid which are incorporated structurally in the body (6', 6") of said tray , by being formed at least partially of a single piece therewith, and in that the distribution and collection means comprise at least one duct for supplying heat-transfer fluid and at least one duct (5") for collecting and discharging heat-transfer fluid, and are arranged on at least a part of the lateral perimeter of the tray and are formed in and/or on the outer face of the wall of the body of said tray . said battery unit being characterized in that the housing is made of a plastic material and consists of a molded bottom tray , with a bottom and lateral walls (6") forming the body (6', 6") of the tray , and of a top cover , which are assembled peripherally, preferentially by screwing, in that at least the tray comprises means for distributing and collecting and circulating the heat-transfer fluid which are incorporated structurally in the body (6', 6") of said tray , by being formed at least partially of a single piece therewith, and in that the distribution and collection means comprise at least one duct for supplying heat-transfer fluid and at least one duct (5") for collecting and discharging heat-transfer fluid, and are arranged on at least a part of the lateral perimeter of the tray and are formed in and/or on the outer face of the wall of the body of said tray .
Solid crosslinkable resin composition that is ductile at room temperature, comprising: - (A) a crosslinkable resin that is liquid at a temperature of between 60 and 80°C; - (B) an optional crosslinking agent; and - (C) additives, said additives comprising: - (C1) a solid metal filler in powder form; - (C2) a thermoplastic; - (C3) an optional chain extender that can react with the resin (A); - (C4) optionally, organic or inorganic non-metallic particles or fibers; the additives (C) representing between 20 and 55% by mass of the composition, advantageously between 30 and 50% by mass, advantageously between 40 and 50% by mass. - (A) a crosslinkable resin that is liquid at a temperature of between 60 and 80°C; - (B) an optional crosslinking agent; and - (C) additives, said additives comprising: - (C1) a solid metal filler in powder form; - (C2) a thermoplastic; - (C3) an optional chain extender that can react with the resin (A); - (C4) optionally, organic or inorganic non-metallic particles or fibers; - (C1) a solid metal filler in powder form; - (C2) a thermoplastic; - (C3) an optional chain extender that can react with the resin (A); - (C4) optionally, organic or inorganic non-metallic particles or fibers;
A method for adding a termination to an end of a tensile strength member made up of multiple synthetic filaments , said tensile strength member having a central axis , comprising: a. providing an anchor with a proximal end, a distal end, and a cavity; b. said cavity including a distal region and a neck region ; c. providing a potting compound in a liquid state, said potting compound being configured to transition to a solid state over time; d. placing a length of filaments and said potting compound in said cavity ; characterised in that the method further comprises: e. determining when said potting compound in said cavity is undergoing a defined transition toward said solid state; and f. upon detecting said defined transition applying tension to said tensile strength member to pull the filaments of said length of filaments straight. a. providing an anchor with a proximal end, a distal end, and a cavity; b. said cavity including a distal region and a neck region ; c. providing a potting compound in a liquid state, said potting compound being configured to transition to a solid state over time; d. placing a length of filaments and said potting compound in said cavity ; e. determining when said potting compound in said cavity is undergoing a defined transition toward said solid state; and f. upon detecting said defined transition applying tension to said tensile strength member to pull the filaments of said length of filaments straight.
A cellulose product comprising the contact product of: a) at least one cellulosic ether selected from carboxymethyl cellulose (CMC), hydroxyethyl cellulose (HEC), carboxymethyl hydroxyethyl cellulose (CMHEC), methyl cellulose (MC), hydroxyethyl methyl cellulose (HEMC), ethyl hydroxyl ethyl cellulose (EHEC), hydroxypropyl cellulose (HPC), and combinations thereof.; b) at least one salt of a polyvalent metal ion; and c) at least one ligand selected from at least one poly(carboxylic) acid or a salt thereof that comprises secondary nitrogen atoms, primary nitrogen atoms, or no nitrogen atoms, and, wherein the cellulose product has less than 10 wt% water. a) at least one cellulosic ether selected from carboxymethyl cellulose (CMC), hydroxyethyl cellulose (HEC), carboxymethyl hydroxyethyl cellulose (CMHEC), methyl cellulose (MC), hydroxyethyl methyl cellulose (HEMC), ethyl hydroxyl ethyl cellulose (EHEC), hydroxypropyl cellulose (HPC), and combinations thereof.; b) at least one salt of a polyvalent metal ion; and c) at least one ligand selected from at least one poly(carboxylic) acid or a salt thereof that comprises secondary nitrogen atoms, primary nitrogen atoms, or no nitrogen atoms, and,
A method for encapsulating a side-emitting laser chip mounted on a sub-portion of a printed circuit board, PCB, of a chip-onboard, CoB, assembly , comprising the steps of: providing a glass window ; providing a window bracket (360; 760) comprising a first walled portion, a second walled portion attached to the first walled portion, and a third walled portion opposite the second walled portion attached to the first wall portion, the first walled portion further comprising a cutaway section (362; 762) configured to accommodate the glass window; attaching the glass window to the window holding bracket to cover and/or fill the cutaway section of the first walled portion; affixing the window holding bracket to the PCB of the CoB assembly so the side-emitting laser chip is adjacent to the first walled portion and between the second and third walled portions and so a base surface of the glass window is disposed on a surface of the PCB; and after affixing the window holding bracket to the PCB, applying an optical encapsulant to cover the side-emitting laser chip. providing a glass window ; providing a window bracket (360; 760) comprising a first walled portion, a second walled portion attached to the first walled portion, and a third walled portion opposite the second walled portion attached to the first wall portion, the first walled portion further comprising a cutaway section (362; 762) configured to accommodate the glass window; attaching the glass window to the window holding bracket to cover and/or fill the cutaway section of the first walled portion; affixing the window holding bracket to the PCB of the CoB assembly so the side-emitting laser chip is adjacent to the first walled portion and between the second and third walled portions and so a base surface of the glass window is disposed on a surface of the PCB; and after affixing the window holding bracket to the PCB, applying an optical encapsulant to cover the side-emitting laser chip.
Driver identification system for rail vehicles comprising: - a contactless reading device placed next to an entry door of a rail vehicle; - a personal identification device associated with an identification code of a driver of the rail vehicle, said identification code being associated with driver data; wherein the contactless reading device is arranged to: acquire wirelessly said identification code; send wirelessly the identification code to an electronic control unit of a cabin of the rail vehicle, said control unit being arranged to automatically unblocking the entry door and to set cabin and driving parameters of the rail vehicle based on the driver data; characterized in that the driver data comprise the height of the driver, the weight of the driver, the used language, the train mission and the cabin comprises a driver desk arranged to host the control unit , and wherein the control unit is arranged to set cabin and driving parameters of the rail vehicle based on the driver data by: - setting the position of a chair in the cabin ; - setting the position of the driver activity pedal under the driver desk ; - setting the language of the console ; - displaying driving parameters on displays of the driver desk . - a contactless reading device placed next to an entry door of a rail vehicle; - a personal identification device associated with an identification code of a driver of the rail vehicle, said identification code being associated with driver data; acquire wirelessly said identification code; send wirelessly the identification code to an electronic control unit of a cabin of the rail vehicle, said control unit being arranged to automatically unblocking the entry door and to set cabin and driving parameters of the rail vehicle based on the driver data; characterized in that the driver data comprise the height of the driver, the weight of the driver, the used language, the train mission and the cabin comprises a driver desk arranged to host the control unit , and wherein the control unit is arranged to set cabin and driving parameters of the rail vehicle based on the driver data by: - setting the position of a chair in the cabin ; - setting the position of the driver activity pedal under the driver desk ; - setting the language of the console ; - displaying driving parameters on displays of the driver desk . - setting the position of a chair in the cabin ; - setting the position of the driver activity pedal under the driver desk ; - setting the language of the console ; - displaying driving parameters on displays of the driver desk .
Hotplate device, in particular induction hotplate device, having at least one base body (13a-b), at least one first support unit (31a-b, 33a-b, 35b, 37b), at least one first heating element (20a-25a; 20b-27b), which is mounted on the first support unit (31a-b, 33a-b, 35b, 37b), at least one first actuator unit (32a-b, 34a-b, 36b, 38b) which is provided to move at least the first heating element (20a-25a; 20b-27b) with respect to the first support unit (31a-b, 33a-b, 35b, 37b), having a control unit (16a-b) and having at least one second actuator unit (30a-b), which is provided to move at least the first support unit (31a-b, 33a-b, 35b, 37b) with respect to the base body (13a-b), characterised by at least one second heating element (20a-25a; 20b-27b), which is mounted on the first support unit (31a-b, 33a-b, 35b, 37b) and is provided to be moved at least by the first actuator unit (32a-b, 34a-b, 36b, 38b) independently of the first heating element (20a-25a, 20b-27b).
Supporting and guiding device for a hauling cable of a vehicle transportation installation by cable, comprising a sheave configured for supporting and guiding the hauling cable , a first girder (4 to 8) provided with a main axis (15 to 23 and 25), a second girder (9 to 14) supporting the sheave and mounted pivotally movable around the main axis (15 to 23 and 25), characterised in that it comprises at least one recovery element (30 to 39) mounted on the first girder (4 to 8) and configured to catch hold of the second girder (9 to 14) in an abnormal operating state corresponding to failure of the main axis (15 to 23 and 25), and at least one cooperating element (40 to 47) mounted on the second girder (9 to 14) at a distance from said at least one recovery element (30 to 39) in a normal operating state where the second girder (9 to 14) swivels around the main axis (15 to 23 and 25), said at least one cooperating element (40 to 47) being configured to be in contact with said at least one recovery element (30 to 39) in the abnormal operating state.
A locking mechanism for fixing profiles used in panel formwork systems of curtain walls and column formworks wherein the locking mechanism comprises; ∘ a stationary arm positioned on an upper surface and at an end of a lock profile , ∘ a serrated piece positioned at a bottom surface of the lock profile , wherein serrated edges of side surfaces of the serrated piece coincide with side surfaces of the lock profile , ∘ a movable arm connected to the side surfaces of the serrated piece , as to stand between the serrated piece and the lock profile , and ∘ a latch which is connected to the movable arm on a bottom surface of the serrated piece , wherein the latch is configured to fix the movable arm to the serrated piece by closing of the latch towards the bottom surface of the serrated piece , where a projection on the moveable arm coincides with grooves of the serrated edges on lateral surfaces of the serrated piece , ensuring that the profiles are fixed/locked, wherein protrusions at ends of the movable arm and the stationary arm are adapted to coincide with indentations in the profiles. ∘ a stationary arm positioned on an upper surface and at an end of a lock profile , ∘ a serrated piece positioned at a bottom surface of the lock profile , wherein serrated edges of side surfaces of the serrated piece coincide with side surfaces of the lock profile , ∘ a movable arm connected to the side surfaces of the serrated piece , as to stand between the serrated piece and the lock profile , and ∘ a latch which is connected to the movable arm on a bottom surface of the serrated piece , wherein the latch is configured to fix the movable arm to the serrated piece by closing of the latch towards the bottom surface of the serrated piece , where a projection on the moveable arm coincides with grooves of the serrated edges on lateral surfaces of the serrated piece , ensuring that the profiles are fixed/locked, wherein protrusions at ends of the movable arm and the stationary arm are adapted to coincide with indentations in the profiles.
A mobile machine comprising: a laser diode based lighting system comprising an integrated package holding at least a gallium and nitrogen containing laser diode (2811; 2903; 3003; 3111; 3211; 3311) and a wavelength conversion member (2812; 2911; 3004; 3112; 3231), the gallium and nitrogen containing laser diode (2811; 2903; 3003; 3111; 3211; 3311) being configured to emit a first laser beam with a first peak wavelength, the wavelength conversion member (2812; 2911; 3004; 3112; 3231) being configured as a remote pumped phosphor, the laser diode based lighting system further comprising an optical fiber to guide at least partially the first laser beam from the gallium and nitrogen containing laser diode to the remote pumped phosphor to excite an emission with a second peak wavelength that is longer than the first peak wavelength and to generate the white light mixed with the second peak wavelength and the first peak wavelength; a light detection and ranging, LIDAR, system within the integrated package and configured to generate a second laser beam and manipulate the second laser beam to sense a spatial map of target objects in a remote distance; and a signal processor (2802; 2902; 3002; 3102; 3202; 3302) configured to control the laser diode based lighting system based on feedback information provided from the LIDAR system . a laser diode based lighting system comprising an integrated package holding at least a gallium and nitrogen containing laser diode (2811; 2903; 3003; 3111; 3211; 3311) and a wavelength conversion member (2812; 2911; 3004; 3112; 3231), the gallium and nitrogen containing laser diode (2811; 2903; 3003; 3111; 3211; 3311) being configured to emit a first laser beam with a first peak wavelength, the wavelength conversion member (2812; 2911; 3004; 3112; 3231) being configured as a remote pumped phosphor, the laser diode based lighting system further comprising an optical fiber to guide at least partially the first laser beam from the gallium and nitrogen containing laser diode to the remote pumped phosphor to excite an emission with a second peak wavelength that is longer than the first peak wavelength and to generate the white light mixed with the second peak wavelength and the first peak wavelength; a light detection and ranging, LIDAR, system within the integrated package and configured to generate a second laser beam and manipulate the second laser beam to sense a spatial map of target objects in a remote distance; and a signal processor (2802; 2902; 3002; 3102; 3202; 3302) configured to control the laser diode based lighting system based on feedback information provided from the LIDAR system .
An information transmission method comprising: after receiving a Mobile IPv6 support for Dual Stack Hosts and Routers, DSMIPv6, binding update signaling, a packet data gateway, P-GW, notifying a source User Datagram Protocol, UDP, port number of the DSMIPv6 binding update signaling to a Policy and Charging Rules Function, PCRF; and the PCRF notifying the source UDP port number of the DSMIPv6 binding update signaling to a fixed broadband access network; wherein the method is characterized by : the P-GW notifying an Internet protocol security, IPSec, source UDP port number to the PCRF after a user equipment or the P-GW itself triggers to establish a Child IPSec security association; and the PCRF notifying the IPSec source UDP port number to the fixed broadband access network. after receiving a Mobile IPv6 support for Dual Stack Hosts and Routers, DSMIPv6, binding update signaling, a packet data gateway, P-GW, notifying a source User Datagram Protocol, UDP, port number of the DSMIPv6 binding update signaling to a Policy and Charging Rules Function, PCRF; and the PCRF notifying the source UDP port number of the DSMIPv6 binding update signaling to a fixed broadband access network; wherein the method is characterized by : the P-GW notifying an Internet protocol security, IPSec, source UDP port number to the PCRF after a user equipment or the P-GW itself triggers to establish a Child IPSec security association; and the PCRF notifying the IPSec source UDP port number to the fixed broadband access network. the P-GW notifying an Internet protocol security, IPSec, source UDP port number to the PCRF after a user equipment or the P-GW itself triggers to establish a Child IPSec security association; and the PCRF notifying the IPSec source UDP port number to the fixed broadband access network.
A method, comprising: communicating , by a network device, with another network device via a media access control security `MACsec' key agreement 'MKA' communication link, wherein an MKA session has been established between the network device and the other network device; determining , by the network device, that the other network device is unavailable, wherein determining that the other network device is unavailable comprises determining that the network device has not received an MKA packet from the other network device for a length of time; causing , by the network device and based on determining that the other network device is unavailable, an MKA state of the network device to be placed in a paused state; receiving , by the network device and after causing the MKA state of the network device to be placed in the paused state, a packet from the other network device via the MKA communication link; determining , by the network device and based on the packet, that the MKA session has not ended; and continuing , by the network device and based on the MKA session having not ended, the MKA session by reactivating the MKA state. communicating , by a network device, with another network device via a media access control security `MACsec' key agreement 'MKA' communication link, wherein an MKA session has been established between the network device and the other network device; determining , by the network device, that the other network device is unavailable, wherein determining that the other network device is unavailable comprises determining that the network device has not received an MKA packet from the other network device for a length of time; causing , by the network device and based on determining that the other network device is unavailable, an MKA state of the network device to be placed in a paused state; receiving , by the network device and after causing the MKA state of the network device to be placed in the paused state, a packet from the other network device via the MKA communication link; determining , by the network device and based on the packet, that the MKA session has not ended; and continuing , by the network device and based on the MKA session having not ended, the MKA session by reactivating the MKA state.