mhurhangee/ep-ind-claims huggingface dataset:
A vehicle track core (16, 29, 50, 60) comprising: a body comprising a first end and a second end opposite the first end, the body having a body width (W B) measured along a first axis extending between the first and second ends (36A,36B), and a body length (L B, L B1, L B2) measured along a second axis orthogonal to the first axis; a first edge portion (38A, 52A, 62A) extending from the first end of the body; and a second edge portion (38B, 52B, 62B) extending from the second end of the body, wherein each of the first and second edge portions defines at least one protrusion (40A, 40B, 54A, 54B, 54C, 54D, 64A, 64B) that extends from a major surface (31, 74) of the respective body, the at least one protrusion having a protrusion length (L P1, L P2, L P3, L P4, L P5, L P6) that is less than the body length (L B, L B1, L B2), and wherein the at least one protrusion has a non-rounded profile, wherein the first edge portion (38A, 52A, 62A) and the second edge portion (38B, 52B, 62B) each comprise a respective first side surface and a respective second side surface, wherein the at least one protrusion of at least one of the first end portion or the second end portion comprises at least two protrusions (54A, 54B, 54C, 54D) or one protrusion (64A, 64B) offset from the first and second side surfaces (66A,66B) of the respective edge portion, and wherein the vehicle track core is configured to be at least partially embedded within a track body (14, 37) of a vehicle track (10, 28). a body comprising a first end and a second end opposite the first end, the body having a body width (W B) measured along a first axis extending between the first and second ends (36A,36B), and a body length (L B, L B1, L B2) measured along a second axis orthogonal to the first axis; a first edge portion (38A, 52A, 62A) extending from the first end of the body; and a second edge portion (38B, 52B, 62B) extending from the second end of the body, wherein each of the first and second edge portions defines at least one protrusion (40A, 40B, 54A, 54B, 54C, 54D, 64A, 64B) that extends from a major surface (31, 74) of the respective body, the at least one protrusion having a protrusion length (L P1, L P2, L P3, L P4, L P5, L P6) that is less than the body length (L B, L B1, L B2), and wherein the at least one protrusion has a non-rounded profile, wherein the first edge portion (38A, 52A, 62A) and the second edge portion (38B, 52B, 62B) each comprise a respective first side surface and a respective second side surface, wherein the at least one protrusion of at least one of the first end portion or the second end portion comprises at least two protrusions (54A, 54B, 54C, 54D) or one protrusion (64A, 64B) offset from the first and second side surfaces (66A,66B) of the respective edge portion, and wherein the vehicle track core is configured to be at least partially embedded within a track body (14, 37) of a vehicle track (10, 28).
A forwarding device connected to a key management server device configured to generate a decryption key by using quantum key distribution, QKD, the forwarding device comprising: a receiving module configured to receive information specifying a decryption target packet from a mobile phone network management server device before receiving a reception packet for selectively protecting communications in case the key distribution processing speed using QKD is slower than a communication speed of a mobile phone network; a packet reception processing module configured to receive the reception packet; a decryption processing module configured to determine, based on the previously received information specifying the decryption target packet, whether the reception packet is the decryption target packet specified from the mobile phone network management server device, and decrypt the reception packet when the reception packet is the decryption target packet; and a forward processing module configured to forward the decrypted reception packet or the undecrypted reception packet. a receiving module configured to receive information specifying a decryption target packet from a mobile phone network management server device before receiving a reception packet for selectively protecting communications in case the key distribution processing speed using QKD is slower than a communication speed of a mobile phone network; a packet reception processing module configured to receive the reception packet; a decryption processing module configured to determine, based on the previously received information specifying the decryption target packet, whether the reception packet is the decryption target packet specified from the mobile phone network management server device, and decrypt the reception packet when the reception packet is the decryption target packet; and a forward processing module configured to forward the decrypted reception packet or the undecrypted reception packet.
A storage system comprising a controller, wherein the controller is applied in the storage system, the storage system further comprises a flash memory apparatus, the flash memory apparatus comprises a flash chip, the flash chip comprises a block, the block comprises multiple pages, and at least one of the multiple pages is a damaged page; the controller comprises a communications interface, a cache and a processor; the communications interface is configured to communicate with the flash memory apparatus; the cache is configured to temporarily store write requests from a host coupled to the controller and the processor is configured to: receive capacity information of the block that is sent by the flash memory apparatus; obtain an effective capacity of the block according to the capacity information of the block, wherein the effective capacity of the block does not comprise a capacity of the damaged page; buffer multiple write requests in the cache until a size of target data included in the multiple write requests reaches the effective capacity of the block; read the target data from the cache; and send the target data to the flash memory apparatus. receive capacity information of the block that is sent by the flash memory apparatus; obtain an effective capacity of the block according to the capacity information of the block, wherein the effective capacity of the block does not comprise a capacity of the damaged page; buffer multiple write requests in the cache until a size of target data included in the multiple write requests reaches the effective capacity of the block; read the target data from the cache; and send the target data to the flash memory apparatus.
A method of 100% recycled PET technical fabric production, wherein the method contains steps in which - a warp of yarn obtained from 100% recycled PET filaments is warped with a thickness ranging from 40 to 334, preferably 84 to 334 dtex and more preferably 84 to 167 dtex; - the warp is tied on the loom, preferably using an automatic warp-tying machine; - a weft of yarn obtained from 100% recycled PET filaments, with a thickness ranging from 58 to 668 dtex, preferably 78 to 501 dtex and preferably 167 to 334 dtex is threaded on a loom; - after loom activation, a fabric pattern is established and weaving is carried out; - the finished fabric is wound on a roller; - initial quality control and preparation for the washing and dyeing process are carried out; - the fabric is washed with heated water at 70°C to 100°C and a pressure of 0-1 bar and dyed at 110°C to 140°C and a pressure of 2.5-3 bar; - the washed fabric is subjected to thermal stabilization in order to maintain its physicochemical parameters, and drying; - the dried fabric is rolled on rollers and subjected to a final quality control, then the fabric is cut into smaller batches and labeled; wherein the stabilization of the fabric is carried out by annealing the fabric strip at 160°C to 220°C, with a fabric web feed rate from 10 m/min to 30 m/min. - a warp of yarn obtained from 100% recycled PET filaments is warped with a thickness ranging from 40 to 334, preferably 84 to 334 dtex and more preferably 84 to 167 dtex; - the warp is tied on the loom, preferably using an automatic warp-tying machine; - a weft of yarn obtained from 100% recycled PET filaments, with a thickness ranging from 58 to 668 dtex, preferably 78 to 501 dtex and preferably 167 to 334 dtex is threaded on a loom; - after loom activation, a fabric pattern is established and weaving is carried out; - the finished fabric is wound on a roller; - initial quality control and preparation for the washing and dyeing process are carried out; - the fabric is washed with heated water at 70°C to 100°C and a pressure of 0-1 bar and dyed at 110°C to 140°C and a pressure of 2.5-3 bar; - the washed fabric is subjected to thermal stabilization in order to maintain its physicochemical parameters, and drying; - the dried fabric is rolled on rollers and subjected to a final quality control, then the fabric is cut into smaller batches and labeled;
A method of reactive ion etching a substrate to form at least a first and a second etched feature (42,44), wherein the first etched feature has a greater aspect ratio than said second etched feature, aspect ratio being the ratio of depth to width of the feature, the method comprising the steps of: in a first etching stage etching said substrate so as to etch only said first feature to a predetermined depth; thereafter in a second etching stage etching said substrate so as to etch both said first and said second features (42,44) to a respective depth; applying a first layer of masking material to a surface of the substrate to define first and second apertures (43,45) corresponding to the shape of said first and second features (42,44); in said first etching stage selectively etching said substrate only through said first aperture to etch the first etched feature to a predetermined depth; thereafter in said second etching stage, etching said substrate through both said apertures (43,45) thereby to etch both said first and second features to a respective depth; wherein said first etching stage includes the step of occluding said second aperture and exposing said masked substrate to a reactive etching process, whereby etching occurs only through said first aperture; the method characterised in that said step of occluding includes applying a second layer of masking material (50;52) over said first layer of masking material to cover said second aperture; said second layer of masking material being removed from said second aperture and said first layer of masking material after said first stage etching process and prior to said second stage etching process. in a first etching stage etching said substrate so as to etch only said first feature to a predetermined depth; thereafter in a second etching stage etching said substrate so as to etch both said first and said second features (42,44) to a respective depth; applying a first layer of masking material to a surface of the substrate to define first and second apertures (43,45) corresponding to the shape of said first and second features (42,44); in said first etching stage selectively etching said substrate only through said first aperture to etch the first etched feature to a predetermined depth; thereafter in said second etching stage, etching said substrate through both said apertures (43,45) thereby to etch both said first and second features to a respective depth; wherein said first etching stage includes the step of occluding said second aperture and exposing said masked substrate to a reactive etching process, whereby etching occurs only through said first aperture; the method characterised in that said step of occluding includes applying a second layer of masking material (50;52) over said first layer of masking material to cover said second aperture; said second layer of masking material being removed from said second aperture and said first layer of masking material after said first stage etching process and prior to said second stage etching process.
A stator or stator segment of an axial turbomachine, preferably a compressor, comprising a casing forming a generally circular wall and stator blades arranged in at least one annular row on the radially inner face of the wall, the blades forming sectors (28, 30, 42), the wall of the casing comprising, along its circumference, several portions, said portions comprising at their circumferential ends flanges extending axially and capable of cooperating with each other for fixing the wall portions, characterized in that at least one of the stator blade sectors comprises several blades with platforms fixed to each other at their adjacent edges by welding and/or brazing so as to describe an arc, and with a blade projecting from the radially inner face of each of the platforms and directed towards the center of the arc described by the platforms, at least one of the platforms comprises on its radially outer face a fixing screw and at least one other of the platforms is free of fixing screws, the at least one sector overlaps a junction between two wall portions and is fixed to one of the portions, and the blade located circumferentially at the flanges being the one whose platform is free of fixing screws.
A method for coordinating contamination removal from a surface of an aircraft, the method comprising: receiving an electronic contamination removal request directly from an aircraft pilot device at a computer request module of a system for coordinating contamination removal from a surface of an aircraft, the electronic contamination removal request including aircraft information, such as an aircraft Civil ID, associated with an aircraft transmitting the electronic contamination removal request; determining, by the computer request module, a physical location within the airport for performing contamination removal treatment, the determination being based on available contamination removal locations; electronically transmitting, via the computer request module or a computer coordination module of the system, the physical location for contamination removal treatment to the aircraft; electronically receiving progress, at a computer de-icing module of the system, of contamination removal treatment; and electronically transmitting progress of contamination removal treatment, via the computer de-icing module, to the aircraft pilot device and/or a central tower manager device; wherein the progress of contamination removal treatment is displayed on multiple displays (216, 236, 246) to allow for close monitoring of the contamination removal treatment by the aircraft pilot, a central tower manager and contamination removal personnel. receiving an electronic contamination removal request directly from an aircraft pilot device at a computer request module of a system for coordinating contamination removal from a surface of an aircraft, the electronic contamination removal request including aircraft information, such as an aircraft Civil ID, associated with an aircraft transmitting the electronic contamination removal request; determining, by the computer request module, a physical location within the airport for performing contamination removal treatment, the determination being based on available contamination removal locations; electronically transmitting, via the computer request module or a computer coordination module of the system, the physical location for contamination removal treatment to the aircraft; electronically receiving progress, at a computer de-icing module of the system, of contamination removal treatment; and electronically transmitting progress of contamination removal treatment, via the computer de-icing module, to the aircraft pilot device and/or a central tower manager device; wherein the progress of contamination removal treatment is displayed on multiple displays (216, 236, 246) to allow for close monitoring of the contamination removal treatment by the aircraft pilot, a central tower manager and contamination removal personnel.
A refrigeration system for providing cooled air to a plurality of galley compartments, the system comprising: a plurality of galley compartments configured to receive therein at least one galley cart; a refrigeration unit configured to supply cooled air to the plurality of galley compartments; an airflow supply and return system coupling the refrigeration unit to the plurality of galley compartments; and a plurality of valves (50, 52) coupled in the airflow supply and return system for controlling flows of the cooled air through airflow supply and return system, each valve of the plurality of valves associated with a compartment of the plurality of galley compartments; characterised in that it comprises a controller in control communication with the plurality of valves, the controller configured to control the plurality of valves to achieve a first temperature in a first galley compartment of the plurality of galley compartments and a second temperature in a second galley compartment of the plurality of galley compartments, the first temperature being different than the second temperature; wherein the controller is configured to: receive one or more pre-programmed rules designating performance priorities for cooling the plurality of galley compartments; and adjust an operational position of at least one of the plurality of valves (50, 52) based on the pre-programmed rules. a plurality of galley compartments configured to receive therein at least one galley cart; a refrigeration unit configured to supply cooled air to the plurality of galley compartments; an airflow supply and return system coupling the refrigeration unit to the plurality of galley compartments; and a plurality of valves (50, 52) coupled in the airflow supply and return system for controlling flows of the cooled air through airflow supply and return system, each valve of the plurality of valves associated with a compartment of the plurality of galley compartments; characterised in that it comprises a controller in control communication with the plurality of valves, the controller configured to control the plurality of valves to achieve a first temperature in a first galley compartment of the plurality of galley compartments and a second temperature in a second galley compartment of the plurality of galley compartments, the first temperature being different than the second temperature; wherein the controller is configured to: receive one or more pre-programmed rules designating performance priorities for cooling the plurality of galley compartments; and adjust an operational position of at least one of the plurality of valves (50, 52) based on the pre-programmed rules. receive one or more pre-programmed rules designating performance priorities for cooling the plurality of galley compartments; and adjust an operational position of at least one of the plurality of valves (50, 52) based on the pre-programmed rules.
A cooler for a semiconductor module (10, 10A) which, by supplying a refrigerant to a water jacket from the exterior, is adapted to cool semiconductor devices to be disposed on the outer surface of the cooler, the cooler comprising: a heat sink thermally connected to the semiconductor devices; a first flow path, disposed in the water jacket and extended from a refrigerant inlet, in which is disposed a guide portion having an inclined surface for guiding the refrigerant toward one side surface of the heat sink; a second flow path, disposed in the water jacket so as to be spaced parallel from the first flow path, and extended toward a refrigerant outlet, which is formed with a sidewall parallel to the other side surface of the heat sink; a third flow path formed in a position in the water jacket providing communication between the first flow path and second flow path, wherein the heat sink is disposed in the third flow path, characterized by a flow velocity adjustment plate, disposed in the second flow path, which is formed spaced parallel from the other side surface of the heat sink, and wherein the refrigerant inlet and refrigerant outlet are formed in the same wall surface of the water jacket. a heat sink thermally connected to the semiconductor devices; a first flow path, disposed in the water jacket and extended from a refrigerant inlet, in which is disposed a guide portion having an inclined surface for guiding the refrigerant toward one side surface of the heat sink; a second flow path, disposed in the water jacket so as to be spaced parallel from the first flow path, and extended toward a refrigerant outlet, which is formed with a sidewall parallel to the other side surface of the heat sink; a third flow path formed in a position in the water jacket providing communication between the first flow path and second flow path, wherein the heat sink is disposed in the third flow path, characterized by a flow velocity adjustment plate, disposed in the second flow path, which is formed spaced parallel from the other side surface of the heat sink, and wherein the refrigerant inlet and refrigerant outlet are formed in the same wall surface of the water jacket.
Illumination device with wake-up and/or fall-asleep functionality, adapted to output light with a gradually increasing or decreasing intensity, the device comprising: at least one controllable light source; a control device adapted to control the light source; wherein the control device is adapted to operate in a STEADY mode during which colour and intensity of the output light are maintained constant at a steady colour value and a steady intensity value, respectively; wherein the control device is adapted to operate in a WAKE-UP mode during which the intensity of the output light is gradually increased from zero to the steady intensity value and/or adapted to operate in a FALL-ASLEEP mode during which the intensity of the output light is gradually decreased from the steady intensity value to zero; wherein the control device comprises a user input adapted to receive a user input signal defining the steady intensity value; wherein the light source is adapted to producte output light of which the colour value is variable independent of the output light intensity; wherein the control device is adapted to vary the overall intensity of the light source as a first function of time such as to reach the steady intensity value at the end of the WAKE-UP mode or such as to start with the steady intensity value at the beginning of the FALL-ASLEEP mode; and wherein the control device is adapted to vary the colour value of the light source as a second function of time, independent of the first function. at least one controllable light source; a control device adapted to control the light source; wherein the control device is adapted to operate in a STEADY mode during which colour and intensity of the output light are maintained constant at a steady colour value and a steady intensity value, respectively; wherein the control device is adapted to operate in a WAKE-UP mode during which the intensity of the output light is gradually increased from zero to the steady intensity value and/or adapted to operate in a FALL-ASLEEP mode during which the intensity of the output light is gradually decreased from the steady intensity value to zero; wherein the control device comprises a user input adapted to receive a user input signal defining the steady intensity value; wherein the light source is adapted to producte output light of which the colour value is variable independent of the output light intensity; wherein the control device is adapted to vary the overall intensity of the light source as a first function of time such as to reach the steady intensity value at the end of the WAKE-UP mode or such as to start with the steady intensity value at the beginning of the FALL-ASLEEP mode; and wherein the control device is adapted to vary the colour value of the light source as a second function of time, independent of the first function.