mhurhangee/ep-ind-claims huggingface dataset:
CONTROL SYSTEM FOR FIRE PREVENTION FACILITIES, the fire prevention facilities being of the type which are mounted on all kinds of buildings and warehouses, mounting at least one pressure group and at least one equipped fire hydrant and at least one fire extinguisher with the corresponding function means, wherein the control system comprises: at least one pressure group equipped with a pressure gauge provided with a Led light and communication means, via radio or wiring; at least one equipped fire hydrant provided with a pressure gauge provided with a Led light and communication means, via radio or wiring; at least one fire extinguisher equipped with a pressure gauge (2") provided with a Led light (3") and communication means (4"), via radio or wiring; a control centre with, at least one computer receiving information from the components of the facility and that is connected to the fixed or mobile telephone network, and; a storage database of the plan of the facility to be controlled with the situation of the different components of the same facility. at least one pressure group equipped with a pressure gauge provided with a Led light and communication means, via radio or wiring; at least one equipped fire hydrant provided with a pressure gauge provided with a Led light and communication means, via radio or wiring; at least one fire extinguisher equipped with a pressure gauge (2") provided with a Led light (3") and communication means (4"), via radio or wiring; a control centre with, at least one computer receiving information from the components of the facility and that is connected to the fixed or mobile telephone network, and; a storage database of the plan of the facility to be controlled with the situation of the different components of the same facility.
A method for the production of an at least partially electrically conductive or semi-conductive element on a structure, wherein the element comprises one or more layers and is configured to serve as a capacitive touch and/or proximity sensitive film, characterized in that the method comprises the steps of a) forming a formable element comprising one or more layers, wherein at least one layer comprises a network of high aspect ratio molecular structures (HARM-structures), wherein the HARM-structures are electrically conductive or semi-conductive, and b) arranging the formable element in a conformal manner onto a structure by pressing and/or vacuum sealing the formable element on a three-dimensional surface of the structure, for producing a conformal and at least partially electrically conductive or semi-conductive element comprising one or more layers, wherein at least one layer comprises a network of HARM-structures, on the three-dimensional surface of the structure. a) forming a formable element comprising one or more layers, wherein at least one layer comprises a network of high aspect ratio molecular structures (HARM-structures), wherein the HARM-structures are electrically conductive or semi-conductive, and b) arranging the formable element in a conformal manner onto a structure by pressing and/or vacuum sealing the formable element on a three-dimensional surface of the structure,
A thin film transistor substrate comprising: a substrate having a first area and a second area; a first semiconductor layer disposed in the first area on the substrate and including a polycrystalline semiconductor material; a gate insulating layer covering the first semiconductor layer; a first gate electrode disposed on the gate insulating layer and overlapping with the first semiconductor layer; a second gate electrode disposed in the second area on the gate insulating layer; a nitride layer disposed on an area of the substrate excepting the second area and covering the first gate electrode; an upper oxide layer covering the nitride layer and the second gate electrode; a lower oxide layer disposed between the nitride layer and the first gate electrode, on an area of the substrate excepting the second area; a second semiconductor layer disposed in the second area on the upper oxide layer, including an oxide semiconductor material and overlapping the second gate electrode; a first source electrode and a first drain electrode disposed on the upper oxide layer; and a second source electrode and a second drain electrode disposed on the second semiconductor layer. a substrate having a first area and a second area; a first semiconductor layer disposed in the first area on the substrate and including a polycrystalline semiconductor material; a gate insulating layer covering the first semiconductor layer; a first gate electrode disposed on the gate insulating layer and overlapping with the first semiconductor layer; a second gate electrode disposed in the second area on the gate insulating layer; a nitride layer disposed on an area of the substrate excepting the second area and covering the first gate electrode; an upper oxide layer covering the nitride layer and the second gate electrode; a lower oxide layer disposed between the nitride layer and the first gate electrode, on an area of the substrate excepting the second area; a second semiconductor layer disposed in the second area on the upper oxide layer, including an oxide semiconductor material and overlapping the second gate electrode; a first source electrode and a first drain electrode disposed on the upper oxide layer; and a second source electrode and a second drain electrode disposed on the second semiconductor layer.
A method for communication utilizing a plurality of time slots over at least one channel, the method comprising: assigning, by at least one processor, at least one of the plurality of time slots for media data, wherein the at least one of the plurality of time slots assigned for the media data is periodic; assigning, by the at least one processor, at least one of remaining time slots of the plurality of time slots for non-media data, wherein the assigning of the at least one of the plurality of time slots for the media data has precedence over the assigning of the remaining time slots of the plurality of time slots for the non-media data; and characterised in that: sending, from a source node, at least one control packet to a destination node and to at least one relay node (2; 3; 4; 5; 6), wherein the at least one control packet comprises a listing, for each of the at least one relay node, of at least one of the time slots that are assigned for at least one of the media data and the non-media data to be supported by the at least one relay node. assigning, by at least one processor, at least one of the plurality of time slots for media data, wherein the at least one of the plurality of time slots assigned for the media data is periodic; assigning, by the at least one processor, at least one of remaining time slots of the plurality of time slots for non-media data, wherein the assigning of the at least one of the plurality of time slots for the media data has precedence over the assigning of the remaining time slots of the plurality of time slots for the non-media data; and characterised in that: sending, from a source node, at least one control packet to a destination node and to at least one relay node (2; 3; 4; 5; 6), wherein the at least one control packet comprises a listing, for each of the at least one relay node, of at least one of the time slots that are assigned for at least one of the media data and the non-media data to be supported by the at least one relay node. sending, from a source node, at least one control packet to a destination node and to at least one relay node (2; 3; 4; 5; 6), wherein the at least one control packet comprises a listing, for each of the at least one relay node, of at least one of the time slots that are assigned for at least one of the media data and the non-media data to be supported by the at least one relay node.
A thermosensitive adhesive comprising: a side chain crystal polymer having a melting point, measured under a measuring condition of 10°C/min by a differential scanning calorimetry, of 20-30°C and being obtainable by adding a metal chelate compound in a following amount of addition into a following copolymer, followed by a crosslinking reaction; a tackifier, and acetylacetone, wherein adhesive strength is to be deteriorated at a temperature below the melting point, wherein the copolymer is obtainable by polymerizing 25-30 parts by weight of (meth)acrylate having a straight-chain alkyl group having 16 to 22 carbon atoms, 60-65 parts by weight of (meth)acrylate having an alkyl group having 1 to 6 carbon atoms, 1-10 parts by weight of a polar monomer, and 1-10 parts by weight of a reactive fluorine compound, wherein the amount of addition is 6-10 parts by weight with respect to 100 parts by weight of a copolymer, wherein the reactive fluorine compound is a compound represented by the following formula (Ia) or the following formula (Ib): and wherein the polar monomer is an ethylenically unsaturated monomer having a carboxylic group or a hydroxyl group. a side chain crystal polymer having a melting point, measured under a measuring condition of 10°C/min by a differential scanning calorimetry, of 20-30°C and being obtainable by adding a metal chelate compound in a following amount of addition into a following copolymer, followed by a crosslinking reaction; a tackifier, and acetylacetone,
A suspension assembly for securing a sensitive component within a shock-resistant housing, the suspension assembly comprising: an outer housing that contains the component, wherein the outer housing has an interior surface; an annulus between the interior surface of the outer housing and the sensitive component; and one or more radial coiled springs, wherein each of the one or more radial coiled springs comprises a toroidal coiled spring that is positioned within the annulus between the outer housing and the component, characterized in that, the suspension assembly further comprises: a cap enclosing a first end of the outer housing; and an axial coiled spring, wherein the axial coiled spring is captured between the cap and the component. an outer housing that contains the component, wherein the outer housing has an interior surface; an annulus between the interior surface of the outer housing and the sensitive component; and one or more radial coiled springs, wherein each of the one or more radial coiled springs comprises a toroidal coiled spring that is positioned within the annulus between the outer housing and the component, characterized in that, the suspension assembly further comprises: a cap enclosing a first end of the outer housing; and an axial coiled spring, wherein the axial coiled spring is captured between the cap and the component. a cap enclosing a first end of the outer housing; and an axial coiled spring, wherein the axial coiled spring is captured between the cap and the component.
A chain saw, comprising: a housing; a guiding plate installed on the housing, such that it is movable forwardly and backwardly relative to the housing; a chain arranged around the guiding plate; a power system installed on the housing and driving the chain; and a tensioning component (5; 6; 7) comprising a knob (51; 61; 71), a driving member (52; 62; 72) and a transmission assembly (53; 63; 73) arranged between the knob (51; 61; 71) and the driving member (52; 62; 72); wherein, when the chain is in a loose state; the knob (51; 61; 71) is arranged to rotate and drive the transmission assembly (53; 63; 73) to rotate, which transmission assembly (53; 63; 73) is arranged to drive the driving member (52; 62; 72) to rotate, and the driving member (52; 62; 72) is arranged to drive the guiding plate to move to tension the chain; when the chain is in an extension state, the knob (51; 61; 71) is arranged to rotate, such that the driving member (52; 62; 72) stays still and skidding is generated inside the tensioning component (5; 6; 7), whereby the transmission assembly comprises a bracket and an elastic member, characterized in that the knob comprises an end wall and a plurality of inner teeth on an inner surface of the end wall, and the bracket comprises a plurality of meshing end teeth engaging with the inner teeth. a housing; a guiding plate installed on the housing, such that it is movable forwardly and backwardly relative to the housing; a chain arranged around the guiding plate; a power system installed on the housing and driving the chain; and a tensioning component (5; 6; 7) comprising a knob (51; 61; 71), a driving member (52; 62; 72) and a transmission assembly (53; 63; 73) arranged between the knob (51; 61; 71) and the driving member (52; 62; 72); wherein, when the chain is in a loose state; the knob (51; 61; 71) is arranged to rotate and drive the transmission assembly (53; 63; 73) to rotate, which transmission assembly (53; 63; 73) is arranged to drive the driving member (52; 62; 72) to rotate, and the driving member (52; 62; 72) is arranged to drive the guiding plate to move to tension the chain; when the chain is in an extension state, the knob (51; 61; 71) is arranged to rotate, such that the driving member (52; 62; 72) stays still and skidding is generated inside the tensioning component (5; 6; 7), whereby the transmission assembly comprises a bracket and an elastic member, characterized in that the knob comprises an end wall and a plurality of inner teeth on an inner surface of the end wall, and the bracket comprises a plurality of meshing end teeth engaging with the inner teeth.
Locking system for locking a lid of a vehicle comprising: - a lid hinged by means of a hinge to a part of the body of a vehicle wherein an opening is obtained in such a way to close/open the opening, - a movement actuator mounted in the part of the body near the hinge and suitable for moving the lid from a closing position, wherein said opening is closed, to an opening position, wherein said opening is open, and vice versa, - a lock comprising a roto-translating pin with a head suitable for being engaged in a seat of the lid, in distal position from the hinge in order to lock the lid in closed position, - an actuator (1; 200) of the lock that moves said roto-translating pin from a retracted closing position to an extracted opening position, wherein said actuator (1; 200) comprises: - an electric motor, and - motion reduction means disposed between the electric motor and the roto-translating pin in such a way to impose a roto-translation movement to the roto-translating pin; said electric motor being suitably configured so as to rotate in a first rotational direction to move the roto-translating pin from the retracted position in such a way to push the lid disposed in closing position, and in a second rotational direction to move the roto-translating pin from the extracted position to the retracted position in such a way to pull the lid towards the closing position. - a lid hinged by means of a hinge to a part of the body of a vehicle wherein an opening is obtained in such a way to close/open the opening, - a movement actuator mounted in the part of the body near the hinge and suitable for moving the lid from a closing position, wherein said opening is closed, to an opening position, wherein said opening is open, and vice versa, - a lock comprising a roto-translating pin with a head suitable for being engaged in a seat of the lid, in distal position from the hinge in order to lock the lid in closed position, - an actuator (1; 200) of the lock that moves said roto-translating pin from a retracted closing position to an extracted opening position, - an electric motor, and - motion reduction means disposed between the electric motor and the roto-translating pin in such a way to impose a roto-translation movement to the roto-translating pin;
A process, comprising: providing a pre-mix comprising an aromatic carboxylic acid component; contacting a tetraalkylguanidine with the aromatic carboxylic acid component in the pre-mix to form a tetraalkylguanidine salt of aromatic carboxylic acid, wherein the pre-mix further comprises a tertiary amine catalyst component, wherein the tetraalkylguanidine salt of aromatic carboxylic acid has a structure of: [HN=C(NR' 2) 2] Z {(R 2) x (R 3) y (Ar)[(CH 2) n (CO 2 H)] z} wherein R 1 =Methyl; R 2 = H; R 3 = CH 3, OH or -CO 2 -R 4 wherein R 4 = -(C 2 H 4 O) m -H wherein m = 1 to 5; Ar= substituted C 6 (Phenyl); n = 0; z = 1, x =4-5; y =0-1. providing a pre-mix comprising an aromatic carboxylic acid component; contacting a tetraalkylguanidine with the aromatic carboxylic acid component in the pre-mix to form a tetraalkylguanidine salt of aromatic carboxylic acid, wherein the pre-mix further comprises a tertiary amine catalyst component, wherein the tetraalkylguanidine salt of aromatic carboxylic acid has a structure of: [HN=C(NR' 2) 2] Z {(R 2) x (R 3) y (Ar)[(CH 2) n (CO 2 H)] z} wherein R 1 =Methyl; R 2 = H; R 3 = CH 3, OH or -CO 2 -R 4 wherein R 4 = -(C 2 H 4 O) m -H wherein m = 1 to 5; Ar= substituted C 6 (Phenyl); n = 0; z = 1, x =4-5; y =0-1. [HN=C(NR' 2) 2] Z {(R 2) x (R 3) y (Ar)[(CH 2) n (CO 2 H)] z} wherein R 1 =Methyl; R 2 = H; R 3 = CH 3, OH or -CO 2 -R 4 wherein R 4 = -(C 2 H 4 O) m -H wherein m = 1 to 5; Ar= substituted C 6 (Phenyl); n = 0; z = 1, x =4-5; y =0-1.
A method comprising: (a) performing a plurality of cycles of a sequencing by synthesis reaction such that, at each cycle, a signal is generated indicative of incorporation of the same nucleotide into plurality of identical polynucleotides, whereby a portion of the signal is noise associated with phasing or pre-phasing; (b) detecting the signal at each cycle, wherein detecting the signal at each cycle includes detecting an intensity value of the signal in a first channel and detecting an intensity value of the signal in a second channel; and (c) performing cycle-by-cycle phasing corrections by applying a new first order phasing correction at each cycle to the intensity values; wherein the new first order phasing correction is calculated for each cycle, wherein the new first order phasing correction for each cycle includes subtracting an intensity value of the immediately previous cycle from an intensity value of the current cycle and also includes subtracting an intensity value of the immediately subsequent cycle from the intensity value of the current cycle; and wherein the nucleotide incorporated into the plurality of identical polynucleotides is identified based on a combination of the intensity values detected in the first and second channels. (a) performing a plurality of cycles of a sequencing by synthesis reaction such that, at each cycle, a signal is generated indicative of incorporation of the same nucleotide into plurality of identical polynucleotides, whereby a portion of the signal is noise associated with phasing or pre-phasing; (b) detecting the signal at each cycle, wherein detecting the signal at each cycle includes detecting an intensity value of the signal in a first channel and detecting an intensity value of the signal in a second channel; and (c) performing cycle-by-cycle phasing corrections by applying a new first order phasing correction at each cycle to the intensity values; wherein the new first order phasing correction is calculated for each cycle, wherein the new first order phasing correction for each cycle includes subtracting an intensity value of the immediately previous cycle from an intensity value of the current cycle and also includes subtracting an intensity value of the immediately subsequent cycle from the intensity value of the current cycle; and wherein the nucleotide incorporated into the plurality of identical polynucleotides is identified based on a combination of the intensity values detected in the first and second channels.
A service disconnect unit comprising: - a bus bar, comprising: - a first portion of the bus bar having a first connector, wherein the first portion of the bus bar is configured to be electrically connected to a first battery module; and - a second portion of the bus bar having a second connector, wherein the second portion of the bus bar is configured to be electrically connected to a second battery module, and the second portion of the bus bar being electrically insulated from the first portion of the bus bar; and - a removable conductive member configured to provide an electrical connection between the first and the second connectors of the respective first and second portions (54, 56) of the bus bar, wherein the first connector and the second connector each comprise a respective opening configured to axially align with one another and to receive the removable conductive member. - a bus bar, comprising: - a first portion of the bus bar having a first connector, wherein the first portion of the bus bar is configured to be electrically connected to a first battery module; and - a second portion of the bus bar having a second connector, wherein the second portion of the bus bar is configured to be electrically connected to a second battery module, and the second portion of the bus bar being electrically insulated from the first portion of the bus bar; and - a first portion of the bus bar having a first connector, wherein the first portion of the bus bar is configured to be electrically connected to a first battery module; and - a second portion of the bus bar having a second connector, wherein the second portion of the bus bar is configured to be electrically connected to a second battery module, and the second portion of the bus bar being electrically insulated from the first portion of the bus bar; and - a removable conductive member configured to provide an electrical connection between the first and the second connectors of the respective first and second portions (54, 56) of the bus bar,
A method for entering data in an application, the method comprising: generating a graphical user interface, GUI, keyboard (60, 100) within the application, the keyboard (60, 100) comprising multiple identifier keys (80A, 80B, 82, 84), wherein each identifier key of the multiple identifier keys is mapped to a randomly generated code representing each respective identifier key; displaying the GUI keyboard within the application; monitoring the position of a pointer of a pointing device in relation to the multiple identifier keys (80A, 80B, 82, 84); detecting that the pointer of the pointing device has been positioned over one of the multiple identifier keys (80A, 80B, 82, 84); detecting selection of the identifier key based on the position of the pointer, the selection of the identifier key being independent of a clicking action or other device interrupt associated with the pointing device; and in response to detecting the selection, generating data associated with the selected identifier key; wherein detecting selection of the identifier key comprises detecting when the pointer has been positioned for a predetermined period of time over the identifier key. generating a graphical user interface, GUI, keyboard (60, 100) within the application, the keyboard (60, 100) comprising multiple identifier keys (80A, 80B, 82, 84), wherein each identifier key of the multiple identifier keys is mapped to a randomly generated code representing each respective identifier key; displaying the GUI keyboard within the application; monitoring the position of a pointer of a pointing device in relation to the multiple identifier keys (80A, 80B, 82, 84); detecting that the pointer of the pointing device has been positioned over one of the multiple identifier keys (80A, 80B, 82, 84); detecting selection of the identifier key based on the position of the pointer, the selection of the identifier key being independent of a clicking action or other device interrupt associated with the pointing device; and in response to detecting the selection, generating data associated with the selected identifier key; wherein detecting selection of the identifier key comprises detecting when the pointer has been positioned for a predetermined period of time over the identifier key.