mhurhangee/patent-ind-claim-en huggingface dataset:
Heavy truck tire having a sub-casing, a belt package and a rubber tread , the tread extending axially form a first tread edge (N) to a second tread edge (N') over a rolling tread width (RTW), the tread comprising a shoulder zone adjacent to each of said first and second edges and a center zone separating the two shoulder zones, each shoulder zone comprising a radially lower shoulder layer and a radially upper shoulder layer , the upper shoulder layer being intended to come into contact with the ground and the lower shoulder layer being interposed between the belt package and the upper shoulder layer, the upper shoulder layer consisting of an upper shoulder rubber compound, the lower shoulder layer consisting of a lower shoulder rubber compound being different from the upper shoulder rubber compound, characterised in that - the upper shoulder layer extends a distance L1 from a tread edge (N, N') axially inward, the distance L1 being greater than 15% and less than 40% of the rolling tread width (RTW); - the upper shoulder layer has a thickness (T22) of between 70% and 130% of the tread depth over at least 80% of the distance L1; - the lower shoulder layer extends a distance L2 from a tread edge (N, N') axially inward, the distance L2 being greater than 15% of the rolling tread width (RTW); - the lower shoulder layer has a thickness of at least 4 mm over the portion of the shoulder zone which covers the belt package; - the upper shoulder rubber compound has a G ∗ 50 of at least 1.3 Mpa and a max tan(δ) of at least 0.12; - the lower shoulder rubber compound has a max tan(δ) not greater than the max tan(δ) of a center rubber compound in the center zone being intended to come into contact with the ground; and - the center rubber compound has a max tan(δ) of at most 0.09. - the upper shoulder layer extends a distance L1 from a tread edge (N, N') axially inward, the distance L1 being greater than 15% and less than 40% of the rolling tread width (RTW); - the upper shoulder layer has a thickness (T22) of between 70% and 130% of the tread depth over at least 80% of the distance L1; - the lower shoulder layer extends a distance L2 from a tread edge (N, N') axially inward, the distance L2 being greater than 15% of the rolling tread width (RTW); - the lower shoulder layer has a thickness of at least 4 mm over the portion of the shoulder zone which covers the belt package; - the upper shoulder rubber compound has a G ∗ 50 of at least 1.3 Mpa and a max tan(δ) of at least 0.12; - the lower shoulder rubber compound has a max tan(δ) not greater than the max tan(δ) of a center rubber compound in the center zone being intended to come into contact with the ground; and - the center rubber compound has a max tan(δ) of at most 0.09.
A method for manufacturing an optical sub-assembly, OSA, the method comprising: inserting a first end of a lock nut into a first cavity of a package body ; inserting a first end of a transistor outline, TO, can into a second cavity of the package body ; stripping a portion of a jacket from an end of an optical fiber , thereby exposing bare optical fiber at the end of the optical fiber ; inserting the end of the optical fiber into a second end of the lock nut such that the bare optical fiber passes into the package body and at least a portion of the bare optical fiber inserts into the second cavity , wherein the lock nut has a turning knob for locking the optical fiber inserted into the package body ; and dispensing glue into a third cavity of the package body to environmentally seal the bare optical fiber. inserting a first end of a lock nut into a first cavity of a package body ; inserting a first end of a transistor outline, TO, can into a second cavity of the package body ; stripping a portion of a jacket from an end of an optical fiber , thereby exposing bare optical fiber at the end of the optical fiber ; inserting the end of the optical fiber into a second end of the lock nut such that the bare optical fiber passes into the package body and at least a portion of the bare optical fiber inserts into the second cavity , wherein the lock nut has a turning knob for locking the optical fiber inserted into the package body ; and dispensing glue into a third cavity of the package body to environmentally seal the bare optical fiber.
A monolithic pharmaceutical form containing ▪ at least one first active ingredient and one second active ingredient, wherein the first active ingredient at a pH value of 7 and 22°C has a solubility of less than 0.01 mg/ml, and wherein the second active ingredient at pH 7 and 22°C has a solubility which exceeds the solubility of the first active ingredient at pH 7 and 22°C by at least one decimal power, and ▪ at least one emulsifier, wherein the emulsifier is prepared by reaction of mono-, di- and/or triglycerides with polyethylene glycol, wherein the polyethylene glycol chain is the hydrophilic part of the emulsifier and is connected with a lipophilic part, and the polyethylene glycol chain comprises at least 4 chain members, wherein the emulsifier has a structural motif of the following formula R 1 -O-[CH 2 -CH 2 -O] n -R 2 wherein R 1 and R 2 independently of each other are hydrogen, alkyl, glyceride or polyalkylene oxide and n is an integer of at least 4; and ▪ at least one retarding agent, wherein the sum of the portions of retarding agent and emulsifier of the pharmaceutical form is at least 40 % by weight and wherein the mass ratio of second active ingredient to retarding agent is less than 1:1. ▪ at least one first active ingredient and one second active ingredient, wherein the first active ingredient at a pH value of 7 and 22°C has a solubility of less than 0.01 mg/ml, and wherein the second active ingredient at pH 7 and 22°C has a solubility which exceeds the solubility of the first active ingredient at pH 7 and 22°C by at least one decimal power, and ▪ at least one emulsifier, wherein the emulsifier is prepared by reaction of mono-, di- and/or triglycerides with polyethylene glycol, wherein the polyethylene glycol chain is the hydrophilic part of the emulsifier and is connected with a lipophilic part, and the polyethylene glycol chain comprises at least 4 chain members, wherein the emulsifier has a structural motif of the following formula R 1 -O-[CH 2 -CH 2 -O] n -R 2 wherein R 1 and R 2 independently of each other are hydrogen, alkyl, glyceride or polyalkylene oxide and n is an integer of at least 4; and ▪ at least one retarding agent,
A method of a monitoring device monitoring surroundings thereof, the method comprising: the monitoring device searching for a sensor device ; the monitoring device acquiring images for the surroundings of the monitoring device ; the monitoring device registering location information of the sensor device based on the images ; and monitoring the surroundings of the location of the sensor device in response to an event occurring in the sensor device based on the registered location information using a camera included in the monitoring device . the monitoring device searching for a sensor device ; the monitoring device acquiring images for the surroundings of the monitoring device ; the monitoring device registering location information of the sensor device based on the images ; and monitoring the surroundings of the location of the sensor device in response to an event occurring in the sensor device based on the registered location information using a camera included in the monitoring device .
A firing switch for a perforating gun with an EB switch port, the firing switch comprising: a body portion configured to be located within the EB switch port, and an electronic addressable switch mechanically coupled to the body portion , the electronic addressable switch comprising a line in, a detonator firing line, and a detonator ground line, and the body portion further comprising an extended pin comprising a line out. a body portion configured to be located within the EB switch port, and an electronic addressable switch mechanically coupled to the body portion , the electronic addressable switch comprising a line in, a detonator firing line, and a detonator ground line, and the body portion further comprising an extended pin comprising a line out.
A High Electron Mobility Transistor, HEMT, semiconductor structure , comprising: a substrate ; a nucleation layer on the substrate ; a Group III-N buffer layer on the nucleation layer; and a Group III-N barrier layer in direct contact with the Group III-N buffer layer to form a junction between the Group III-N buffer layer and the Group III-N barrier layer, the Group III-N buffer layer having a band gap lower than the Group III-N barrier layer producing a two dimensional electron gas, 2DEG, channel in the Group III-N buffer layer; wherein the Group III-N barrier layer consists of a 1.5nm thick lower portion and an upper portion both extending from a source electrode to a drain electrode of the HEMT; wherein the entire upper portion of the barrier layer is doped with a dopant with a doping concentration in excess of 1×10 17 atoms per cm 3 and wherein the lower portion of the barrier layer closest to the 2DEG channel has doping concentration levels of 5 × 10 16 atoms per cm 3 or less, wherein the dopant is carbon, beryllium, chromium, vanadium, magnesium, zinc or iron, and wherein the barrier layer is AlGaN and the buffer layer is GaN. a substrate ; a nucleation layer on the substrate ; a Group III-N buffer layer on the nucleation layer; and a Group III-N barrier layer in direct contact with the Group III-N buffer layer to form a junction between the Group III-N buffer layer and the Group III-N barrier layer, the Group III-N buffer layer having a band gap lower than the Group III-N barrier layer producing a two dimensional electron gas, 2DEG, channel in the Group III-N buffer layer; wherein the dopant is carbon, beryllium, chromium, vanadium, magnesium, zinc or iron, and wherein the barrier layer is AlGaN and the buffer layer is GaN.
A method of wireless communication, comprising: identifying, by a user equipment, UE , one or more services in use or predicted to be in use by the UE ; selecting, by the UE , a service specific cell selection procedure or a default cell selection procedure based on the identified one or more services, wherein the service specific cell selection procedure comprises accessing stored system information for previously selected service-specific cells and wherein the default cell selection procedure comprises scanning all radio frequency, RF, channels in the frequency bands of the radio access technologies, RATs, in the vicinity of the UE ; executing, by the UE , the selected one of the service specific cell selection procedure or the default cell selection procedure to identify and select a cell to camp on; and camping, by the UE , on the selected cell. identifying, by a user equipment, UE , one or more services in use or predicted to be in use by the UE ; selecting, by the UE , a service specific cell selection procedure or a default cell selection procedure based on the identified one or more services, wherein the service specific cell selection procedure comprises accessing stored system information for previously selected service-specific cells and wherein the default cell selection procedure comprises scanning all radio frequency, RF, channels in the frequency bands of the radio access technologies, RATs, in the vicinity of the UE ; executing, by the UE , the selected one of the service specific cell selection procedure or the default cell selection procedure to identify and select a cell to camp on; and camping, by the UE , on the selected cell.
An endocavity thermal control device comprising: an elongated body having an insertable portion for insertion into a rectum of a patient and an external portion that remains external to the rectum ; a fluid circuit in the body that extends from the external portion to the insertable portion , the fluid circuit configured to circulate a thermal fluid into and out of the insertable portion ; and a thermal window disposed on a surface of the insertable portion , the thermal window configured to be positioned adjacent to a prostate when the device is inserted into the rectum , the thermal window in thermal communication with the thermal fluid, characterized in that the insertable portion includes a distal portion and a proximal portion disposed at a body angle with respect to one another, the body angle being an obtuse angle greater than 90 degrees but less than 180 degrees; wherein the thermal window extends from a bend of the insertable portion that defines the body angle and the bend is configured to align with a position and/or angle of a notch on a rectal wall, the notch disposed adjacent to an apex of the prostate . an elongated body having an insertable portion for insertion into a rectum of a patient and an external portion that remains external to the rectum ; a fluid circuit in the body that extends from the external portion to the insertable portion , the fluid circuit configured to circulate a thermal fluid into and out of the insertable portion ; and a thermal window disposed on a surface of the insertable portion , the thermal window configured to be positioned adjacent to a prostate when the device is inserted into the rectum , the thermal window in thermal communication with the thermal fluid, characterized in that the insertable portion includes a distal portion and a proximal portion disposed at a body angle with respect to one another, the body angle being an obtuse angle greater than 90 degrees but less than 180 degrees; wherein the thermal window extends from a bend of the insertable portion that defines the body angle and the bend is configured to align with a position and/or angle of a notch on a rectal wall, the notch disposed adjacent to an apex of the prostate .
A kit for a rotor of an electrical machine comprising a permanent magnet module and a pole piece (501; 515), wherein the permanent magnet module includes: a housing having a bottom configured to be mounted to a rim of the rotor, a first side wall , and a second side wall , the bottom extending laterally beyond the first and the second side wall , and a permanent magnet component arranged inside the housing, the permanent magnet component having a radial magnetization with respect to an axis of rotation of the rotor; and wherein the pole piece (501; 515) includes: a metallic main body configured to be fixed to a rim of the rotor in such a way that, in use, a portion of the laterally extending bottom of the permanent magnet module is clamped between the pole piece and the rim of the rotor; and wherein the pole piece (501; 515) comprises an axial hole adapted to receive a fixation rod , and a plurality of radial holes, such that the pole piece (501; 515) can be fixed to a rotor rim by a plurality of bolts inserted in the radial holes and fixed to the fixation rod . a housing having a bottom configured to be mounted to a rim of the rotor, a first side wall , and a second side wall , the bottom extending laterally beyond the first and the second side wall , and a permanent magnet component arranged inside the housing, the permanent magnet component having a radial magnetization with respect to an axis of rotation of the rotor; and wherein the pole piece (501; 515) includes: a metallic main body configured to be fixed to a rim of the rotor in such a way that, in use, a portion of the laterally extending bottom of the permanent magnet module is clamped between the pole piece and the rim of the rotor; and wherein the pole piece (501; 515) comprises an axial hole adapted to receive a fixation rod , and a plurality of radial holes, such that the pole piece (501; 515) can be fixed to a rotor rim by a plurality of bolts inserted in the radial holes and fixed to the fixation rod . a metallic main body configured to be fixed to a rim of the rotor in such a way that, in use, a portion of the laterally extending bottom of the permanent magnet module is clamped between the pole piece and the rim of the rotor; and wherein the pole piece (501; 515) comprises an axial hole adapted to receive a fixation rod , and a plurality of radial holes, such that the pole piece (501; 515) can be fixed to a rotor rim by a plurality of bolts inserted in the radial holes and fixed to the fixation rod .
A fingerprint event processing method, wherein the method is applied to a terminal having a first fingerprint receiving area and a second fingerprint receiving area, and the method comprises: receiving a first fingerprint in the first fingerprint receiving area; generating a first preset event according to the first fingerprint; determining a first current application scenario run by the terminal and then executing a first operation according to the first preset event and the first current application scenario; receiving a second fingerprint in the second fingerprint receiving area, wherein the second fingerprint is different from the first fingerprint; generating a second preset event according to the first fingerprint and the second fingerprint; and determining a second current application scenario run by the terminal and executing a second operation according to the second preset event and the second current application scenario. receiving a first fingerprint in the first fingerprint receiving area; generating a first preset event according to the first fingerprint; determining a first current application scenario run by the terminal and then executing a first operation according to the first preset event and the first current application scenario; receiving a second fingerprint in the second fingerprint receiving area, wherein the second fingerprint is different from the first fingerprint; generating a second preset event according to the first fingerprint and the second fingerprint; and determining a second current application scenario run by the terminal and executing a second operation according to the second preset event and the second current application scenario.
Control system for a battery system with a battery cell stack having a plurality of battery cells interconnected between a first stack node and a second stack node, the control system comprising an N-phase DCDC converter with N single phase DCDC converters , each single phase DCDC converter comprising a first input node connected to the first stack node and a second input node connected to the second stack node; a first microcontroller , μC 1 , configured to control a first fraction of the N single phase DCDC converters ; and a second microcontroller , μC 2 , configured to control the remaining second fraction of the N single phase DCDC converters and being connected to μC 1 via a data line , wherein the control system is configured to: operate in a first operation mode, wherein the control operations of μC 1 and μC 2 are synchronized via the data line for commonly controlling the N single phase DCDC converters , and operate in second operation mode, wherein μC 1 autonomously controls the first fraction and μC 2 autonomously controls the second fraction . an N-phase DCDC converter with N single phase DCDC converters , each single phase DCDC converter comprising a first input node connected to the first stack node and a second input node connected to the second stack node; a first microcontroller , μC 1 , configured to control a first fraction of the N single phase DCDC converters ; and a second microcontroller , μC 2 , configured to control the remaining second fraction of the N single phase DCDC converters and being connected to μC 1 via a data line , wherein the control system is configured to: operate in a first operation mode, wherein the control operations of μC 1 and μC 2 are synchronized via the data line for commonly controlling the N single phase DCDC converters , and operate in second operation mode, wherein μC 1 autonomously controls the first fraction and μC 2 autonomously controls the second fraction . operate in a first operation mode, wherein the control operations of μC 1 and μC 2 are synchronized via the data line for commonly controlling the N single phase DCDC converters , and operate in second operation mode, wherein μC 1 autonomously controls the first fraction and μC 2 autonomously controls the second fraction .
A fluid collection device , comprising: a fluid impermeable barrier having an inner surface at least partially defining a chamber , a first end region including a first outer surface portion and defining an aperture extending therethrough, and a second end region distal to the first end region and including a second outer surface portion, the fluid impermeable barrier being substantially cylindrical in shape between the first end region and the second end region the fluid impermeable barrier also defining an opening extending longitudinally along the fluid impermeable barrier and configured to be positioned adjacent to a female urethra; and a substantially cylindrical fluid permeable body positioned at least partially within the chamber to extend across at least a portion of the opening and configured to wick fluid away from the opening the device being characterized in that : i) the fluid impermeable barrier is configured to be adhesively secured within the gluteal cleft; in that ; ii) the second outer surface portion of the second end of the fluid impermeable barrier has more adhesive strength than the first outer surface portion of the first end region of the fluid impermeable barrier. a fluid impermeable barrier having an inner surface at least partially defining a chamber , a first end region including a first outer surface portion and defining an aperture extending therethrough, and a second end region distal to the first end region and including a second outer surface portion, the fluid impermeable barrier being substantially cylindrical in shape between the first end region and the second end region the fluid impermeable barrier also defining an opening extending longitudinally along the fluid impermeable barrier and configured to be positioned adjacent to a female urethra; and a substantially cylindrical fluid permeable body positioned at least partially within the chamber to extend across at least a portion of the opening and configured to wick fluid away from the opening the device being characterized in that : i) the fluid impermeable barrier is configured to be adhesively secured within the gluteal cleft; in that ; ii) the second outer surface portion of the second end of the fluid impermeable barrier has more adhesive strength than the first outer surface portion of the first end region of the fluid impermeable barrier. i) the fluid impermeable barrier is configured to be adhesively secured within the gluteal cleft; in that ; ii) the second outer surface portion of the second end of the fluid impermeable barrier has more adhesive strength than the first outer surface portion of the first end region of the fluid impermeable barrier.