mhurhangee/patent-ind-claim-en huggingface dataset:
A computer implemented method of caching directory metadata locally, the method comprising: receiving, at a file server, a request from a client for directory metadata and a lease to cache directory metadata locally, determining whether to grant a lease if a determination is made that a lease can be granted, generating, by the file server, a directory key and a parent directory key that are used as lease keys to keep track of leases granted to clients and storing them in a lease table, sending a response packet with the requested directory metadata and indication of approval of the lease to the client. receiving, at a file server, a request from a client for directory metadata and a lease to cache directory metadata locally, determining whether to grant a lease if a determination is made that a lease can be granted, generating, by the file server, a directory key and a parent directory key that are used as lease keys to keep track of leases granted to clients and storing them in a lease table, sending a response packet with the requested directory metadata and indication of approval of the lease to the client.
A method for assisting differentiating contraction of basaloid squamous cell carcinoma of the esophagus, comprising: a measurement step of measuring expression levels of 5 genes comprising nucleotide sequences shown in SEQ ID NOs: 141 to 145, respectively, per unit amount of samples collected from a test subject and a healthy subject or a group of healthy subjects, thereby obtaining measurement values thereof; a calculation step of, based on the measurement values obtained in the measurement step, calculating expression ratios for each gene based on the measurement values of the test subject and the healthy subject or the group of healthy subjects, thereby obtaining a sum of the expression ratios, or calculating an average measurement value from the respective measurement values of all of the genes measured in the measurement step for the test subject and the group of healthy subjects; and a determination step of, based on the values obtained in the calculation step, determining that the test subject is highly likely to be affected with basaloid squamous cell carcinoma of the esophagus in a case in which the sum exceeds a given cutoff value resulting from an ROC curve, or in a case in which the average measurement value of the test subject is statistically significantly larger than the average measurement value of the group of healthy subjects. a measurement step of measuring expression levels of 5 genes comprising nucleotide sequences shown in SEQ ID NOs: 141 to 145, respectively, per unit amount of samples collected from a test subject and a healthy subject or a group of healthy subjects, thereby obtaining measurement values thereof; a calculation step of, based on the measurement values obtained in the measurement step, calculating expression ratios for each gene based on the measurement values of the test subject and the healthy subject or the group of healthy subjects, thereby obtaining a sum of the expression ratios, or calculating an average measurement value from the respective measurement values of all of the genes measured in the measurement step for the test subject and the group of healthy subjects; and a determination step of, based on the values obtained in the calculation step, determining that the test subject is highly likely to be affected with basaloid squamous cell carcinoma of the esophagus in a case in which the sum exceeds a given cutoff value resulting from an ROC curve, or in a case in which the average measurement value of the test subject is statistically significantly larger than the average measurement value of the group of healthy subjects.
Thin layer lithium-ion type battery comprising, on a substrate , a cathode current collector layer and an active portion constituted by a stack of a cathode layer made of material suitable for inserting lithium ions, an electrolyte layer , said electrolyte layer being made of LiPON, LiSiCON, LiSON or NaSiCON, and an anode layer , wherein the cathode layer presents, across its thickness, porosity that varies between its interface with the cathode current collector layer and its interface with the electrolyte layer, the variation in the porosity being non-zero so as to improve cohesion at both interfaces.
A battery module comprising: a battery cell stack in which a plurality of battery cells are stacked, and a frame member accommodating the battery cell stack and having an upper surface and a lower surface corresponding to each other, wherein an injection hole for injecting a thermally conductive resin is formed in the lower surface of the frame member , and wherein an insertion hole through which a protrusion of a supporting jig passes is formed in the upper surface of the frame member . a battery cell stack in which a plurality of battery cells are stacked, and a frame member accommodating the battery cell stack and having an upper surface and a lower surface corresponding to each other, wherein an injection hole for injecting a thermally conductive resin is formed in the lower surface of the frame member , and wherein an insertion hole through which a protrusion of a supporting jig passes is formed in the upper surface of the frame member .
A leveling motor, comprising: a housing ; a shaft axially moving in the housing and having on an outer circumference thereof a threaded portion ; a threaded pipe provided on an outer circumference of the shaft , and having on an inner circumference thereof a grooved portion that corresponds to the threaded portion ; and an elastic member supplying an upward elastic force to the shaft , the threaded pipe being rotated by interaction between a magnet and a coil provided on the outer circumference of the threaded pipe ; the threaded portion axially coming into close contact with the grooved portion by the elastic force of the elastic member ; the elastic member comprising a coil spring , connected at an upper end thereof to a lower end of the shaft and connected at a lower end thereof to a bottom of the housing , characterized in that a protrusion protrudes upwards from the bottom of the housing in the coil spring to prevent the coil spring from moving leftwards or rightwards, and a connector having a spherical or an elliptical cross-section is disposed between the coil spring and the shaft , thereby minimizing a contact area between the lower end of the shaft and the connector . a housing ; a shaft axially moving in the housing and having on an outer circumference thereof a threaded portion ; a threaded pipe provided on an outer circumference of the shaft , and having on an inner circumference thereof a grooved portion that corresponds to the threaded portion ; and an elastic member supplying an upward elastic force to the shaft , the threaded pipe being rotated by interaction between a magnet and a coil provided on the outer circumference of the threaded pipe ; the threaded portion axially coming into close contact with the grooved portion by the elastic force of the elastic member ; the elastic member comprising a coil spring , connected at an upper end thereof to a lower end of the shaft and connected at a lower end thereof to a bottom of the housing , characterized in that a protrusion protrudes upwards from the bottom of the housing in the coil spring to prevent the coil spring from moving leftwards or rightwards, and a connector having a spherical or an elliptical cross-section is disposed between the coil spring and the shaft , thereby minimizing a contact area between the lower end of the shaft and the connector .
A self-testing duct environment detector system , comprising: a first portion to be mounted outside of a duct , the first portion having a detector housing with a space therein, the space having a detector with a sensing chamber and a self-testing sensing apparatus therein, wherein the self-testing sensing apparatus is configured to determine whether a rate of airflow through the sensing chamber is above a threshold rate; and a second portion and third portion each configured to extend into the duct, wherein the second portion has at least one inlet aperture formed therein and wherein the third portion has at least on outlet aperture therein; and wherein the self-testing sensing apparatus includes a particulate generator that generates particulate into the sensing chamber . a first portion to be mounted outside of a duct , the first portion having a detector housing with a space therein, the space having a detector with a sensing chamber and a self-testing sensing apparatus therein, wherein the self-testing sensing apparatus is configured to determine whether a rate of airflow through the sensing chamber is above a threshold rate; and a second portion and third portion each configured to extend into the duct, wherein the second portion has at least one inlet aperture formed therein and wherein the third portion has at least on outlet aperture therein; and wherein the self-testing sensing apparatus includes a particulate generator that generates particulate into the sensing chamber .
An extrusion additive manufacturing process comprising the extrusion of a polyethylene composition (I) having a melt flow index MIE at 190°C with a load of 2.16 kg, according to ISO 1133-2:2011, of at least 0.1 g/10 min., preferably at least 0.5 g/10 min., said polyethylene composition (I) comprising: A) from 1% to 40% by weight of a polyethylene component having a weight average molar mass M w , as measured by GPC (Gel Permeation Chromatography), equal to or higher than 1,000,000 g/mol; B) from 1% to 95 % by weight of a polyethylene component having a M w value from 50,000 to 500,000 g/mol; C) from 1% to 59 % by weight of a polyethylene component having a M w value equal to or lower than 5,000 g/mol; wherein the amounts of components A), B) and C) are referred to the total weight of A) + B) + C). A) from 1% to 40% by weight of a polyethylene component having a weight average molar mass M w , as measured by GPC (Gel Permeation Chromatography), equal to or higher than 1,000,000 g/mol; B) from 1% to 95 % by weight of a polyethylene component having a M w value from 50,000 to 500,000 g/mol; C) from 1% to 59 % by weight of a polyethylene component having a M w value equal to or lower than 5,000 g/mol;
A compound of formula I or a pharmaceutically acceptable salt thereof: wherein: W is CH 2 or NR5; X is CH 2 , O, (C=O), or NR5; Y is CH 2 , O, (C=O), or NR 5 ; Z is CH 2 or NR 5 ; wherein when W is CH 2 and Z is CH 2 then W and Z may combine with another carbon atom to form a bridge; R 1 is selected from hydrogen, C 1-4 alkyl, C 3-8 cycloalkyl, aryl, heterocyclyl, Me-aryl, Me-heterocyclyl, Me-cycloalkyl, said cycloalkyl, aryl and heterocyclyl are optionally substituted with 1, 2, or 3 substituents chosen from: halogen, CHF 2 , OCHF 2 , CF 3 , OCF 3 , CN, C 1-4 alkyl, O(C 1-4 )alkyl, S(O) 2 R b , C(O)N(R b ) 2 , phenyl, wherein said alkyl and phenyl are optionally substituted with 1, 2, or 3 substituents chosen from: OH, CF 3 , OCF 3 , halogen, C(O)N(R b ) 2 , and CN; R 2 is hydrogen; R3 and R 4 are each independently chosen from hydrogen, hydroxyl, and C 1-4 alkyl; R5 is independently hydrogen, methyl or phenyl; and R b is independently hydrogen or C 1-4 alkyl. W is CH 2 or NR5; X is CH 2 , O, (C=O), or NR5; Y is CH 2 , O, (C=O), or NR 5 ; Z is CH 2 or NR 5 ; wherein when W is CH 2 and Z is CH 2 then W and Z may combine with another carbon atom to form a bridge; R 1 is selected from hydrogen, C 1-4 alkyl, C 3-8 cycloalkyl, aryl, heterocyclyl, Me-aryl, Me-heterocyclyl, Me-cycloalkyl, said cycloalkyl, aryl and heterocyclyl are optionally substituted with 1, 2, or 3 substituents chosen from: halogen, CHF 2 , OCHF 2 , CF 3 , OCF 3 , CN, C 1-4 alkyl, O(C 1-4 )alkyl, S(O) 2 R b , C(O)N(R b ) 2 , phenyl, wherein said alkyl and phenyl are optionally substituted with 1, 2, or 3 substituents chosen from: OH, CF 3 , OCF 3 , halogen, C(O)N(R b ) 2 , and CN; R 2 is hydrogen; R3 and R 4 are each independently chosen from hydrogen, hydroxyl, and C 1-4 alkyl; R5 is independently hydrogen, methyl or phenyl; and R b is independently hydrogen or C 1-4 alkyl.
Method for forming a shallow junction in a semiconductor substrate having an interface layer containing contaminants on a first face of said substrate, comprising the steps of: a) bombarding said first face with ions so as to implant ions into said semiconductor substrate and to form an ion implanted region having a predetermined implantation depth; and b) irradiating said first face with a pulsed laser beam so as to melt said semiconductor substrate to at least the predetermined implantation depth; wherein said pulsed laser beam has an energy density and a pulse duration selected to form within said ion implanted region a first layer extending from the first face and including the implanted ions and the contaminants having diffused from said interface layer; and a second layer extending from the first layer deeper into the semiconductor substrate and including implanted ions and an atomic concentration of contaminants lower than 10 18 at/cm 3 , preferably lower than 10 17 at/cm 3 and in that it further comprises a step c) of removing at least said first layer from the semiconductor substrate , said junction being formed at the interface between said second layer and a subjacent non-molten part of the semiconductor substrate . a) bombarding said first face with ions so as to implant ions into said semiconductor substrate and to form an ion implanted region having a predetermined implantation depth; and b) irradiating said first face with a pulsed laser beam so as to melt said semiconductor substrate to at least the predetermined implantation depth;
Protecting helmet of the type comprising at least one inner shell made of a shock-absorbing material, the inner shell being covered with an outer shell on the outside and delimiting a front opening of the helmet, as well as at least one anti-dazzle visor constrained to said protecting helmet so that to rotate and/or translate with respect to said outer shell and to move between a lowered position interfering, at least partially, with said front opening , and a raised position disengaging from said front opening , and vice versa, characterized by comprising electrically operated motor means to operate said at least one anti-dazzle visor from said lowered position to said raised position, or vice versa, and an automatic control unit that is vocally operated to control said motor means .
A crane , in particular a loading crane for a vehicle , with a crane controller for the crane , wherein the crane has at least the following: - a first crane arm , - a second crane arm that can be arranged thereon at a first articulation angle (a1), a crane arm extension that can be arranged on the second crane arm at a second articulation angle (a2) with at least one crane extension arm , wherein the crane extension arm can assume different extension positions (x1, x2, x3), and wherein the crane controller has at least the following: - an extension position sensor (s1) for detecting the extension position (x1, x2, x3) of the at least one crane extension arm and - a memory for storing entries (e1, e2) for limit values (g4, g5) for at least one operating parameter of the crane characteristic of the current capacity utilisation of the crane, wherein entries (e1, e2) for maximum permissible limit values (g1, g2) are stored in the memory for at least two extension positions (x1, x2) of the at least one crane extension arm , preferably for a substantially completely retracted extension position (x1) of the crane extension arm and a substantially completely extended extension position (x2) of the crane extension arm , and the crane controller further has an overload monitoring means and a limit value (g1, g2) for at least one operating parameter of the crane is specifiable by the overload monitoring means of the crane controller , wherein the limit value (g1, g2) is specified by the overload monitoring means on the basis of the stored entries (e1, e2) as a function of the extension position (x1, x2) of the crane extension arm , characterized in that a limit value (g3) lying between the stored entries (e1, e2) with respect to magnitude is specifiable for at least one further extension position (x3) between the stored extension positions (x1, x2) of the at least one crane extension arm . - a first crane arm , - a second crane arm that can be arranged thereon at a first articulation angle (a1), - an extension position sensor (s1) for detecting the extension position (x1, x2, x3) of the at least one crane extension arm and - a memory for storing entries (e1, e2) for limit values (g4, g5) for at least one operating parameter of the crane characteristic of the current capacity utilisation of the crane, wherein entries (e1, e2) for maximum permissible limit values (g1, g2) are stored in the memory for at least two extension positions (x1, x2) of the at least one crane extension arm , preferably for a substantially completely retracted extension position (x1) of the crane extension arm and a substantially completely extended extension position (x2) of the crane extension arm ,
A lead-free low-melting glass composition containing: vanadium oxide; tellurium oxide; silver oxide; and lithium oxide, said composition satisfying the following relational expressions , , , , and in terms of oxides: Ag 2 O ≧ TeO 2 ≧ V 2 O 5 ≧ Li 2 O 2 V 2 O 5 ≧ Ag 2 O + Li 2 O ≧ 40 3 ≦ Li 2 O ≦ 25 20 ≦ V 2 O 5 ≦ 30 24 ≦ TeO 2 ≦ 35 24 ≦ Ag 2 O ≦ 42 wherein, in the formulae, [X] represents a content of component X, and the unit thereof is "mol%"; the same applies hereinafter. vanadium oxide; tellurium oxide; silver oxide; and lithium oxide, said composition satisfying the following relational expressions , , , , and in terms of oxides: Ag 2 O ≧ TeO 2 ≧ V 2 O 5 ≧ Li 2 O 2 V 2 O 5 ≧ Ag 2 O + Li 2 O ≧ 40 3 ≦ Li 2 O ≦ 25 20 ≦ V 2 O 5 ≦ 30 24 ≦ TeO 2 ≦ 35 24 ≦ Ag 2 O ≦ 42 wherein, in the formulae, [X] represents a content of component X, and the unit thereof is "mol%"; the same applies hereinafter.
Method of coding a key and a locking pin for a lock of a locking system, where two coded parts each of which incorporates a coded face and a contact face are created, the two coded parts are then reworked to form the key and the locking pin, where reworking includes provision of a base body of a key or locking pin which base body also incorporates a contact face , and where the coded part is fitted onto the contact face of the base body by its contact face and each of the two coded parts is so fixed in one of a number of possible rotary positions on the base body assigned to it that a functionable key or locking pin is created, characterised in that the coacting contact faces of a coded part and a base body are provided as contact faces that can be steplessly rotated relative to each other and the respective coded part can be fixed to the respective base body torsion- and tension-resistantly. the two coded parts are then reworked to form the key and the locking pin, where reworking includes provision of a base body of a key or locking pin which base body also incorporates a contact face , and where the coded part is fitted onto the contact face of the base body by its contact face and each of the two coded parts is so fixed in one of a number of possible rotary positions on the base body assigned to it that a functionable key or locking pin is created, characterised in that the coacting contact faces of a coded part and a base body are provided as contact faces that can be steplessly rotated relative to each other and the respective coded part can be fixed to the respective base body torsion- and tension-resistantly.
A method for data transmission, the method comprising: transmitting , by a terminal, uplink data in a grant-free manner; detecting , by the terminal, grant information within a target time window and generating a detection result; and determining , by the terminal, whether to retransmit the uplink data based on the detection result, characterized in that , the grant information is configured to indicate configuration information of a data transmission channel, determining , by the terminal, whether to retransmit the uplink data based on the detection result comprises: determining, by the terminal, to retransmit the uplink data, in response to that the terminal determines the detection result is the grant information is received and that a value of an information domain of the grant information is not equal to a preset value. transmitting , by a terminal, uplink data in a grant-free manner; detecting , by the terminal, grant information within a target time window and generating a detection result; and determining , by the terminal, whether to retransmit the uplink data based on the detection result, characterized in that , the grant information is configured to indicate configuration information of a data transmission channel, determining , by the terminal, whether to retransmit the uplink data based on the detection result comprises: determining, by the terminal, to retransmit the uplink data, in response to that the terminal determines the detection result is the grant information is received and that a value of an information domain of the grant information is not equal to a preset value.
A household device comprising at least one tank for holding water and a level sensor for measuring a level of the tank , the level sensor comprising one or more optical components having at least one optical emitter element (143-1,343-1) and at least one optical receiver element (143-2,343-2), wherein the optical emitter element (143-1,343-1) and the optical receiver element (143-2,343-2) are mounted in the household device opposite a transparent side wall of the tank in the inserted and operational state at a level below an upper edge of the tank and above a bottom of the tank and wherein the tank is mechanically separated from the level sensor in such a way that the tank can be removed from the household device without the level sensor , characterised in that the household device has an optical presence sensor which is designed to generate a signal depending on whether the tank is inserted into the household device and wherein the side wall of the tank facing the presence sensor has a zone with increased reflectivity compared to the remaining wall, and wherein in the inserted and operational state of the tank the zone of increased reflectivity is located at the level of the presence sensor .
Control panel for operating a machine tool comprising at least a first and a second operating unit , wherein the two operating units each comprise at least one screen and at least one input element (3, 4, 6-11), characterised in that the screens of the two operating units each have a resolution of at least 50,000 pixels, and wherein the screen of at least one of the operating units is configured as a touch screen, wherein the second operating unit is operable in a portable manner, and wherein a first group of machine tool operating functions is available only via the first operating unit and a second group of machine tool operating functions is available only via the second operating unit . wherein the two operating units each comprise at least one screen and at least one input element (3, 4, 6-11), characterised in that the screens of the two operating units each have a resolution of at least 50,000 pixels, and wherein the screen of at least one of the operating units is configured as a touch screen, wherein the second operating unit is operable in a portable manner, and wherein a first group of machine tool operating functions is available only via the first operating unit and a second group of machine tool operating functions is available only via the second operating unit .