mhurhangee/patent-ind-claim-en huggingface dataset:
Device for transferring fluids between a first site and a second site , said device comprising: - at least one conduit for transferring fluids, said conduit comprising at least one first end that is connectable to the first site and at least one second end that is connectable to the second site , said second end being movable with respect to said first end with the possibility of assuming at least one working position in which it is possible to transfer a fluid through an access opening of the second site ; - actuator means configured to move said second end and position it in said working position; - first sensor means configured to detect the position of the access opening of the second site ; - control means configured to control said actuator means on the basis of signals provided by said first sensor means ; - second sensor means that is distinct from said first sensor means ; in that is characterized in that said second sensor means is arranged on said second end and configured to detect presence of an access opening. - at least one conduit for transferring fluids, said conduit comprising at least one first end that is connectable to the first site and at least one second end that is connectable to the second site , said second end being movable with respect to said first end with the possibility of assuming at least one working position in which it is possible to transfer a fluid through an access opening of the second site ; - actuator means configured to move said second end and position it in said working position; - first sensor means configured to detect the position of the access opening of the second site ; - control means configured to control said actuator means on the basis of signals provided by said first sensor means ; - second sensor means that is distinct from said first sensor means ; in that is characterized in that said second sensor means is arranged on said second end and configured to detect presence of an access opening.
A reading and writing method of a memory device, the memory device comprising a memory chip , a temperature detection unit and a controlling chip electrically connected to the memory chip and the temperature detection unit, and the method comprises the following sequential steps of: turning on the controlling chip; detecting, by the temperature detection unit, a temperature of the memory chip; obtaining, by the controlling chip, the temperature of the memory chip and obtaining, by the controlling chip, a writing recovery time corresponding to the temperature; controlling, by the controlling chip, the memory chip to be powered on, and setting, by the controlling chip, the writing recovery time corresponding to the temperature as a present writing recovery time of the memory chip; during operation of the memory chip, detecting, by the temperature detection unit, the temperature of the memory chip; and adjusting, by the controlling chip, the writing recovery time of the memory chip according to the temperature detected during the operation of the memory chip. turning on the controlling chip; detecting, by the temperature detection unit, a temperature of the memory chip; obtaining, by the controlling chip, the temperature of the memory chip and obtaining, by the controlling chip, a writing recovery time corresponding to the temperature; controlling, by the controlling chip, the memory chip to be powered on, and setting, by the controlling chip, the writing recovery time corresponding to the temperature as a present writing recovery time of the memory chip; during operation of the memory chip, detecting, by the temperature detection unit, the temperature of the memory chip; and adjusting, by the controlling chip, the writing recovery time of the memory chip according to the temperature detected during the operation of the memory chip.
A squeegee , especially for squeegeeing printing ink off a printing cylinder, comprising a squeegee body having a working edge and a first squeegee side which especially faces the printing cylinder in operation and a second squeegee side which especially faces away from the printing cylinder in operation, where the squeegee body has been provided with a coating comprising a polymer, where the coating comprises particles at least in one subregion, and the particles take the form of hard material particles , characterized in that a proportion by mass of the hard material particles in the coating on the first squeegee side is higher than a proportion by mass of the hard material particles in the coating on the second squeegee side .
A spiral wound heat exchanger , comprising: a first manifold ; a flow body in flow communication with the first manifold , wherein the flow body is wrapped in successive layers about the first manifold and defines a spiral formed by an involute of a circle; a plurality of flow passages , included in the flow body , extending between a first end and a second end of the flow body for a first fluid; and a second manifold in flow communication with the flow body , wherein the flow body is disposed within a housing that defines a cross-flow path for a second fluid that extends across the successive layers of said flow body . a first manifold ; a flow body in flow communication with the first manifold , wherein the flow body is wrapped in successive layers about the first manifold and defines a spiral formed by an involute of a circle; a plurality of flow passages , included in the flow body , extending between a first end and a second end of the flow body for a first fluid; and a second manifold in flow communication with the flow body , wherein the flow body is disposed within a housing that defines a cross-flow path for a second fluid that extends across the successive layers of said flow body .
A helmet comprising: a segmented outer shell comprising an upper portion and a lower portion , and defining right and left elongated segmented openings that extend along an interface of the upper and lower portions extending from a-pillars on the right and left sides of a faceport to a rear of the helmet; an energy management liner disposed within the segmented outer shell and further comprising: an outer energy management layer comprising openings formed completely through the outer energy management layer and having an uneven or stepped outer surface comprising stand-offs, ridges, pillars, bumps, columns, or protrusions so that the outer surface directly contacts the outer shell in some places while not extending to touch the segmented outer shell in other places, and an inner energy management layer disposed within the outer energy management layer , the inner energy management layer comprising channels formed completely through the inner energy management layer that are aligned, and overlap by at least 1 centimeter (cm), with the openings in the outer energy management layer and facilitate airflow through the elongated segmented openings . a segmented outer shell comprising an upper portion and a lower portion , and defining right and left elongated segmented openings that extend along an interface of the upper and lower portions extending from a-pillars on the right and left sides of a faceport to a rear of the helmet; an energy management liner disposed within the segmented outer shell and further comprising: an outer energy management layer comprising openings formed completely through the outer energy management layer and having an uneven or stepped outer surface comprising stand-offs, ridges, pillars, bumps, columns, or protrusions so that the outer surface directly contacts the outer shell in some places while not extending to touch the segmented outer shell in other places, and an inner energy management layer disposed within the outer energy management layer , the inner energy management layer comprising channels formed completely through the inner energy management layer that are aligned, and overlap by at least 1 centimeter (cm), with the openings in the outer energy management layer and facilitate airflow through the elongated segmented openings . an outer energy management layer comprising openings formed completely through the outer energy management layer and having an uneven or stepped outer surface comprising stand-offs, ridges, pillars, bumps, columns, or protrusions so that the outer surface directly contacts the outer shell in some places while not extending to touch the segmented outer shell in other places, and an inner energy management layer disposed within the outer energy management layer , the inner energy management layer comprising channels formed completely through the inner energy management layer that are aligned, and overlap by at least 1 centimeter (cm), with the openings in the outer energy management layer and facilitate airflow through the elongated segmented openings .
A method of driving an electromagnetic actuator, comprising a coil (Bob), an electrical supply circuit for supplying power to the coil, and an electronic control circuit, the supply circuit comprising a switching stage comprising an H-bridge comprising a plurality of switches (SW1, SW2, SW3) connected to the coil, the first switch (SW1) being connected in a first arm of the bridge between an electrical earth (GND) and the coil, and the second switch (SW2) being connected between the voltage bus (Vdc) and the coil in a second arm of the H-bridge, the third switch (SW3) being connected between the coil and electrical earth in a third arm of the bridge, the driving method being characterised in that it includes steps comprising : - apply a first control strategy in which the first and third switches are held in a closed state, while the second switch is switched between its open and closed states; - detecting an overcurrent event in the coil, by detecting that the voltage measured on the control bus (Vdc) exceeds a predefined voltage limit (Vlim) or by detecting that the duty cycle of the second switch (SW2) becomes lower than a threshold value (DC_lim); - in response, apply a second driving strategy, instead of the first driving strategy, in which the third switch (SW3) is periodically opened to decrease the current to the coil. - apply a first control strategy in which the first and third switches are held in a closed state, while the second switch is switched between its open and closed states; - detecting an overcurrent event in the coil, by detecting that the voltage measured on the control bus (Vdc) exceeds a predefined voltage limit (Vlim) or by detecting that the duty cycle of the second switch (SW2) becomes lower than a threshold value (DC_lim); - in response, apply a second driving strategy, instead of the first driving strategy, in which the third switch (SW3) is periodically opened to decrease the current to the coil.
A glycidyl amine epoxy resin of a structural Formula (II) obtained by reaction of a diamine of a structural Formula (I) with epichlorohydrin, wherein the structure of Formula (II) is represented by: wherein the structure of the diamine of the structural Formula (I) is represented by: wherein the diamine of formula (I) has at least two amine groups with at least one labile hydrogen on each nitrogen; at least one nitrogen atom is directly attached to an aromatic ring on one side; at least one amine group is a hindered amine either due to hindered aromatic ring having at least one substitution on ring at ortho position to carbon which is directly attached to amine group or due to branched aliphatic carbon directly attached to amine group; at least one group out of R1, R2, R3 and R4 is independently hindered aromatic or branched aliphatic or substituted branched aliphatic; R1, R2, R3, and R4 are independently selected from the group consisting of hydrogen, alkyl, branched alkyl, aromatic, ortho substituted aromatic, ar-aliphatic, substituted ar-aliphatic, and substituted aliphatic; R1 and R4, or, R2 and R3 may be connected; and wherein the diamine of structural Formula (I) is AMES negative. the diamine of formula (I) has at least two amine groups with at least one labile hydrogen on each nitrogen; at least one nitrogen atom is directly attached to an aromatic ring on one side; at least one amine group is a hindered amine either due to hindered aromatic ring having at least one substitution on ring at ortho position to carbon which is directly attached to amine group or due to branched aliphatic carbon directly attached to amine group; at least one group out of R1, R2, R3 and R4 is independently hindered aromatic or branched aliphatic or substituted branched aliphatic; R1, R2, R3, and R4 are independently selected from the group consisting of hydrogen, alkyl, branched alkyl, aromatic, ortho substituted aromatic, ar-aliphatic, substituted ar-aliphatic, and substituted aliphatic; R1 and R4, or, R2 and R3 may be connected; and wherein the diamine of structural Formula (I) is AMES negative.
An ex vivo or in vitro method for editing an Interleukin-7 receptor (IL7R) gene in a human cell by genome editing, the method comprising the step of introducing into the human cell: a) one or more Cas9 endonucleases; and b) one or more guide ribonucleic acids (gRNAs) comprising a spacer sequence selected from the group consisting of SEQ ID NOs: 56967, 54913, 54915, 54863, 54868, 56926, 56919, 54912, 54909, 56969, 54937, 54864, 56959, 56980, 54898, 56946, 56962, 56924, 56915, 56978, 54948, 56918, 56976, 54891, 56938, 54932, 56914, and 56949, to effect one or more single-strand breaks (SSBs) or double-strand breaks (DSBs) within or near the IL7R gene or other DNA sequences that encode regulatory elements of the IL7R gene in the human cell that results in a permanent insertion, deletion, correction, or modulation of expression or function of one or more mutations or exons within or near or affecting the expression or function of the IL7R gene or other DNA sequences that encode regulatory elements of the IL7R gene, thereby generating a genetically modified cell characterized by restoration of IL7R protein activity as compared to wild-type or normal IL7R protein activity. a) one or more Cas9 endonucleases; and b) one or more guide ribonucleic acids (gRNAs) comprising a spacer sequence selected from the group consisting of SEQ ID NOs: 56967, 54913, 54915, 54863, 54868, 56926, 56919, 54912, 54909, 56969, 54937, 54864, 56959, 56980, 54898, 56946, 56962, 56924, 56915, 56978, 54948, 56918, 56976, 54891, 56938, 54932, 56914, and 56949, to effect one or more single-strand breaks (SSBs) or double-strand breaks (DSBs) within or near the IL7R gene or other DNA sequences that encode regulatory elements of the IL7R gene in the human cell that results in a permanent insertion, deletion, correction, or modulation of expression or function of one or more mutations or exons within or near or affecting the expression or function of the IL7R gene or other DNA sequences that encode regulatory elements of the IL7R gene, thereby generating a genetically modified cell characterized by restoration of IL7R protein activity as compared to wild-type or normal IL7R protein activity. to effect one or more single-strand breaks (SSBs) or double-strand breaks (DSBs) within or near the IL7R gene or other DNA sequences that encode regulatory elements of the IL7R gene in the human cell that results in a permanent insertion, deletion, correction, or modulation of expression or function of one or more mutations or exons within or near or affecting the expression or function of the IL7R gene or other DNA sequences that encode regulatory elements of the IL7R gene, thereby generating a genetically modified cell characterized by restoration of IL7R protein activity as compared to wild-type or normal IL7R protein activity.
A radio communication system comprising: a first base station configured to transmit a first pilot signal within a first cell formed by the first base station itself; and a second base station configured to communicate with a mobile station (7-2), set, based on reception quality of the first pilot signal transmitted from the first base station , target received power of uplink data transmitted to the second base station from the mobile station (7-2) and control transmission power of the uplink data by using the target received power. a first base station configured to transmit a first pilot signal within a first cell formed by the first base station itself; and a second base station configured to communicate with a mobile station (7-2), set, based on reception quality of the first pilot signal transmitted from the first base station , target received power of uplink data transmitted to the second base station from the mobile station (7-2) and control transmission power of the uplink data by using the target received power.
An inorganic oxide powder for use in forming an inorganic oxide porous membrane having insulation performance on at least one surface of a positive electrode, a negative electrode and a separator which constitute a lithium ion secondary battery, characterized in that the powder has 1) an oxide purity of 90% by weight or higher, 2) an average particle diameter of 1 μm or less, wherein the "average particle diameter" means a particle diameter corresponding to 50% cumulative percentage on a mass basis measured by a laser diffraction method, 3) an average three-dimensional particle unevenness of 3.0 or higher, and 4) when 5% cumulative percentage and 100% cumulative percentage on a mass basis from the smaller side of a particle diameter distribution are d5 and d100, respectively, (d100-d5)/average particle diameter] is 5 or less, wherein the inorganic oxide is α-alumina. 1) an oxide purity of 90% by weight or higher, 2) an average particle diameter of 1 μm or less, wherein the "average particle diameter" means a particle diameter corresponding to 50% cumulative percentage on a mass basis measured by a laser diffraction method, 3) an average three-dimensional particle unevenness of 3.0 or higher, and 4) when 5% cumulative percentage and 100% cumulative percentage on a mass basis from the smaller side of a particle diameter distribution are d5 and d100, respectively, (d100-d5)/average particle diameter] is 5 or less,
A method for correcting a stereocamera mounted on a vehicle , wherein a first optical device that has a first chart having a predetermined pattern and a mirror surface having a diameter equal to or greater than a baseline length (L) of the stereocamera generates a virtual image of the first chart , and the stereocamera uses images obtained by capturing the virtual image with a plurality of cameras to correct a parameter corresponding to the relative position of the images obtained by the cameras , characterized in that the first optical device includes either a reflecting telescope or a catadioptric telescope. a first optical device that has a first chart having a predetermined pattern and a mirror surface having a diameter equal to or greater than a baseline length (L) of the stereocamera generates a virtual image of the first chart , and the stereocamera uses images obtained by capturing the virtual image with a plurality of cameras to correct a parameter corresponding to the relative position of the images obtained by the cameras , characterized in that the first optical device includes either a reflecting telescope or a catadioptric telescope.
Method for moving a motor vehicle out of a perpendicular parking space , in which the motor vehicle is manoeuvred along an exiting trajectory at least semi-autonomously out of the perpendicular parking space onto a road adjacent to the perpendicular parking space , wherein, during this semi-autonomous manoeuvring of the motor vehicle along the exiting trajectory , at least one reversing movement is carried out, an end position (E) is determined and the semi-autonomous manoeuvring of the motor vehicle along the exiting trajectory is ended at the end position (E), wherein the end position (E) is determined as at least a position such that, in the event of further moving of the motor vehicle being carried out from the end position (E), manual driving of the motor vehicle in a direction of travel predetermined by the road can be carried out by a driver of the vehicle without manoeuvring the motor vehicle in a forward movement, characterized in that , after reaching the end position (E), a forward gear is engaged by means of a driver assistance system or an instruction to engage the forward gear is issued to the driver of the motor vehicle .
A method comprising: determining a client-based trigger for requesting a provisioning of a client device to access a network out of a plurality of networks; processing and/or facilitating a processing of the client-based trigger to generate a provisioning request; receiving network provisioning information based, at least in part, on the provisioning request, wherein the network provisioning information comprises a universal resource identifier, URI, that is usable to register the client device and configure a service for the client device with the network; and processing and/or facilitating a processing of the network provisioning information to gain access to the network by using the URI to fetch registration information for registering the client device with the network. determining a client-based trigger for requesting a provisioning of a client device to access a network out of a plurality of networks; processing and/or facilitating a processing of the client-based trigger to generate a provisioning request; receiving network provisioning information based, at least in part, on the provisioning request, wherein the network provisioning information comprises a universal resource identifier, URI, that is usable to register the client device and configure a service for the client device with the network; and processing and/or facilitating a processing of the network provisioning information to gain access to the network by using the URI to fetch registration information for registering the client device with the network.
Process for treating a bearing component composed of steel, wherein - the bearing component is subjected to a bluing treatment, - the blued bearing component is subjected to a thermal after-treatment in which it is stored at a hold temperature for a hold time, - the hold time is at least 30 minutes, characterized in that - the hold temperature is above 150°C, - the bearing component is, immediately after the bluing treatment and before the bearing component has cooled to a minimum temperature of 50°C, wetted with a liquid protective medium which is stable up to a temperature of at least 200°C and/or is subjected to the thermal after-treatment. - the bearing component is subjected to a bluing treatment, - the blued bearing component is subjected to a thermal after-treatment in which it is stored at a hold temperature for a hold time, - the hold time is at least 30 minutes, - the hold temperature is above 150°C, - the bearing component is, immediately after the bluing treatment and before the bearing component has cooled to a minimum temperature of 50°C, wetted with a liquid protective medium which is stable up to a temperature of at least 200°C and/or is subjected to the thermal after-treatment.