mhurhangee/ep-ind-claims huggingface dataset:
An interior partition system for installation between a lower deck structure and an upper deck structure of a structural frame building, the structural frame building having a ceiling line that defines a ceiling height of occupiable space within the structural frame building, the interior partition system comprising: a first modular partition assembly for connection to the lower deck structure along a lower edge of the first modular partition assembly; a second modular partition assembly for connection to the upper deck structure along an upper edge of the second modular partition assembly; and a receptor structure configured to connect an upper edge of the first modular partition assembly to a lower edge of the second modular partition assembly; wherein in use the first modular partition assembly has a vertical dimension that exceeds the ceiling height such that the upper edge of the first modular partition assembly, the lower edge of the second modular partition assembly, and the receptor structure are located above the ceiling line upon installation of the first modular partition assembly, the second modular partition assembly, and the receptor structure in the structural frame building; wherein the receptor structure comprises a lower receptor structure configured to receive the upper edge of the first modular partition assembly and an upper receptor structure, which is separate from the lower receptor structure, configured to receive the lower edge of the second modular partition assembly, wherein the lower receptor structure and the upper receptor structure are configured to be fastened together; characterized by the receptor structure being configured to accommodate vertical deflection between the lower deck structure and the upper deck structure; and wherein the lower receptor structure comprises a plurality of vertical slots in each side of the lower receptor structure, wherein the vertical slots are configured to receive a fastener to fasten the lower receptor structure to the first modular partition assembly according to an adjustable vertical position of the lower receptor structure relative to a fixed position of the first modular partition assembly. a first modular partition assembly for connection to the lower deck structure along a lower edge of the first modular partition assembly; a second modular partition assembly for connection to the upper deck structure along an upper edge of the second modular partition assembly; and a receptor structure configured to connect an upper edge of the first modular partition assembly to a lower edge of the second modular partition assembly;
Protective hood securing device for a portable power tool, in particular for an angle grinder, having a protective hood unit which has a protective hood, wherein the protective hood is able to be coupled to a machine neck of a portable power tool in a form-fitting and/or force-fitting manner and is securable thereto in a rotationally fixed manner, and having a securing unit with at least one securing element which, together with the protective hood unit, is provided for protection in the event of a shattering tool, wherein the securing element is formed at least partially by a protective cover in addition to the protective hood, characterized in that the protective cover is mounted at least partially on the protective hood and is arranged so as to be rotatable at least partially with respect to the protective hood.
A pressure sensor (102; 202; 600; 700), comprising: a probe body (212; 300; 400) comprising a pressure deflectable diaphragm (250a, 702) formed of a first material having a first coefficient of thermal expansion, the pressure deflectable diaphragm (250a, 702) including a first surface at least partially defining a first portion of a capacitor; a non-deformable component (252, 704) formed of a second material having a second coefficient of thermal expansion, the non-deformable component (252, 704) including a second surface spaced from the first surface, the second surface at least partially defining a second portion of the capacitor; and an intermediate component disposed at a peripheral region of the second surface of the non-deformable component (252, 704), the intermediate component isolating the pressure deflectable diaphragm (250a, 702) and the non-deformable component (252, 704) from each other, the intermediate component being formed of a third material having a third coefficient of thermal expansion; wherein the third coefficient of thermal expansion is less than the first coefficient of thermal expansion, characterized in that the intermediate component is formed as a coating on at least one of the pressure deflectable diaphragm (250a, 702) or the non-deformable component (252, 704). a probe body (212; 300; 400) comprising a pressure deflectable diaphragm (250a, 702) formed of a first material having a first coefficient of thermal expansion, the pressure deflectable diaphragm (250a, 702) including a first surface at least partially defining a first portion of a capacitor; a non-deformable component (252, 704) formed of a second material having a second coefficient of thermal expansion, the non-deformable component (252, 704) including a second surface spaced from the first surface, the second surface at least partially defining a second portion of the capacitor; and an intermediate component disposed at a peripheral region of the second surface of the non-deformable component (252, 704), the intermediate component isolating the pressure deflectable diaphragm (250a, 702) and the non-deformable component (252, 704) from each other, the intermediate component being formed of a third material having a third coefficient of thermal expansion; wherein the third coefficient of thermal expansion is less than the first coefficient of thermal expansion, characterized in that the intermediate component is formed as a coating on at least one of the pressure deflectable diaphragm (250a, 702) or the non-deformable component (252, 704).
Method for inserting at least one line from the group of the cutting and/or scoring and/or grooving lines into a support plate of a tool from the group of the cutting and/or punching and/or grooving tools, including the steps of: - providing the support plate; - generating at least one first recess corresponding to the line in the support plate, wherein the at least one first recess is generated with a predetermined excess with respect to the line; - filling the first recess with a curable filling material; - curing the filling material in the first recess; - generating at least one further second recess in the cured filling material for dimensionally accurately receiving the line, wherein the second recess is produced by milling and/or by laser beam cutting and/or by water jet cutting the cured filling material; and - inserting the line into the dimensionally accurate second recess. - providing the support plate; - generating at least one first recess corresponding to the line in the support plate, wherein the at least one first recess is generated with a predetermined excess with respect to the line; - filling the first recess with a curable filling material; - curing the filling material in the first recess; - generating at least one further second recess in the cured filling material for dimensionally accurately receiving the line, wherein the second recess is produced by milling and/or by laser beam cutting and/or by water jet cutting the cured filling material; and - inserting the line into the dimensionally accurate second recess.
System comprising a vacuum device having a vacuum device housing and having at least one vacuum device network socket, wherein the at least one vacuum device network socket is attached to the vacuum device housing, and a plug-in module having a plug-in module communication unit, having an electrical plug-in module network plug unit and having a current control unit, which is designed to control an electric current between the plug-in module and the vacuum device.
A method of sample analysis comprising: subjecting a reaction mixture comprising: PCR reagents for amplifying a nucleic acid target, and flap cleavage reagents for performing a flap cleavage assay on said nucleic acid target, to the following thermocycling conditions: a first set of 5-15 cycles of: i. a first temperature of at least 90 °C; ii. a second temperature in the range of 60 °C to 75 °C; iii. a third temperature in the range of 65 °C to 75 °C; followed by: a second set of 20-50 cycles of: i. a fourth temperature of at least 90 °C; ii. a fifth temperature that is at least 10 °C lower than said second temperature; iii. a sixth temperature in the range of 65 °C to 75 °C; wherein no additional reagents are added to said reaction between said first and second sets of cycles and, in each cycle of said second set of cycles, cleavage of a flap probe is measured and wherein said method comprises measuring cleavage of said flap probe while said reaction mixture is at said fifth temperature. subjecting a reaction mixture comprising: PCR reagents for amplifying a nucleic acid target, and flap cleavage reagents for performing a flap cleavage assay on said nucleic acid target, PCR reagents for amplifying a nucleic acid target, and flap cleavage reagents for performing a flap cleavage assay on said nucleic acid target, a first set of 5-15 cycles of: i. a first temperature of at least 90 °C; ii. a second temperature in the range of 60 °C to 75 °C; iii. a third temperature in the range of 65 °C to 75 °C; followed by: i. a first temperature of at least 90 °C; ii. a second temperature in the range of 60 °C to 75 °C; iii. a third temperature in the range of 65 °C to 75 °C; followed by: a second set of 20-50 cycles of: i. a fourth temperature of at least 90 °C; ii. a fifth temperature that is at least 10 °C lower than said second temperature; iii. a sixth temperature in the range of 65 °C to 75 °C; wherein no additional reagents are added to said reaction between said first and second sets of cycles and, in each cycle of said second set of cycles, cleavage of a flap probe is measured and wherein said method comprises measuring cleavage of said flap probe while said reaction mixture is at said fifth temperature. i. a fourth temperature of at least 90 °C; ii. a fifth temperature that is at least 10 °C lower than said second temperature; iii. a sixth temperature in the range of 65 °C to 75 °C;
A radiation curable composition comprising a radiation curable component comprising a compound having at least one ethylenically unsaturated group and a chlorinated polyester component that is prepared from a polyol component which is free of any Bisphenol A derivative compound and which is free of any cyclic ether polyol compound, said polyol component comprising a polyol compound (Ai) which is cyclic, which has at least two hydroxyl groups and wherein the polyol component comprises at least 5% by weight of one or more cyclic polyol(s) (Ai) and a polycarboxylic acid component comprising a compound (Bi) having at least one chlorine group and at least two carboxyl groups, optionally at least one monoalcohol compound, optionally at least one monocarboxylic acid compound, optionally at least one polycarboxylic acid compound free of chlorine groups, and optionally an additional radiation curable component comprising at least one oligomeric compound having at least two radiation curable ethylenically unsaturated groups. a radiation curable component comprising a compound having at least one ethylenically unsaturated group and a chlorinated polyester component that is prepared from a polyol component which is free of any Bisphenol A derivative compound and which is free of any cyclic ether polyol compound, said polyol component comprising a polyol compound (Ai) which is cyclic, which has at least two hydroxyl groups and wherein the polyol component comprises at least 5% by weight of one or more cyclic polyol(s) (Ai) and a polycarboxylic acid component comprising a compound (Bi) having at least one chlorine group and at least two carboxyl groups, optionally at least one monoalcohol compound, optionally at least one monocarboxylic acid compound, optionally at least one polycarboxylic acid compound free of chlorine groups, and a polyol component which is free of any Bisphenol A derivative compound and which is free of any cyclic ether polyol compound, said polyol component comprising a polyol compound (Ai) which is cyclic, which has at least two hydroxyl groups and wherein the polyol component comprises at least 5% by weight of one or more cyclic polyol(s) (Ai) and said polyol component comprising a polyol compound (Ai) which is cyclic, which has at least two hydroxyl groups and wherein the polyol component comprises at least 5% by weight of one or more cyclic polyol(s) (Ai) and a polycarboxylic acid component comprising a compound (Bi) having at least one chlorine group and at least two carboxyl groups, optionally at least one monoalcohol compound, optionally at least one monocarboxylic acid compound, optionally at least one polycarboxylic acid compound free of chlorine groups, and optionally an additional radiation curable component comprising at least one oligomeric compound having at least two radiation curable ethylenically unsaturated groups.
A method for obtaining an acoustic coupling quantity of a hearing instrument to a user's ear being a Real-Ear-to-Coupler Difference (RECD), a Microphone Location Effect, and/or a Coupler Response for Flat Insertion Gain (CORFIG), the method comprising the step of providing a hearing instrument placed in or at a user's ear, the hearing instrument comprising at least one outer microphone operable to obtain an input signal from an acoustic signal incident on the user's ear, and at least one receiver operable to produce an output acoustic signal for impinging on the user's eardrum, characterized in that the method comprises the further steps of obtaining a transfer function representative of an acoustic transfer from the receiver to the outer microphone and of performing a computation of said acoustic coupling quantity, wherein in said computation the transfer function is used as an input quantity.
Vehicle tyre having a tread, two sidewalls, a tyre inside, a tyre cavity, at least one carcass ply and a belt ply, wherein the tyre components have different rubber compounds and reinforcements, wherein the vehicle tyre comprises a transponder, characterized in that the transponder has associated information about the electrical conductivity of the vehicle tyre and for the specific use of the vehicle tyre for a specific vehicle type. wherein the tyre components have different rubber compounds and reinforcements, wherein the vehicle tyre comprises a transponder, characterized in that the transponder has associated information about the electrical conductivity of the vehicle tyre and for the specific use of the vehicle tyre for a specific vehicle type.
A tissue derived porous matrix comprising a decellularized tissue, wherein the decellularized tissue is derived from one or more human tissue types selected from dermis, adipose, fascia, and combinations thereof, wherein the decellularized tissue essentially lacks immunogenicity while retaining a proportion of the initially present naturally formed physical structure of the tissue sufficient to provide a three-dimensional scaffold capable of infiltration by cells and ingrowth by new tissue, and wherein the matrix is resorbable, has a plurality of interconnected pores which allow fluid flow through the matrix, and is cross-linked which stabilizes the matrix and provides a controlled resorbtion rate after implantation.
A random access method for a User Equipment, UE (02, 1300), comprising: selecting one or more beams after receiving random access resource configurations corresponding to a plurality of beams transmitted from a network side; and selecting a random access resource whose transmission time is a designated transmission time from available random access resources in accordance with the random access resource configuration corresponding to the one or more beams, to transmit a random access request, characterized in that the random access resource whose transmission time is the designated transmission time is a randomly selected one of the available random access resources within a time period determined in accordance with a time for the random access resource with the earliest transmission time. selecting one or more beams after receiving random access resource configurations corresponding to a plurality of beams transmitted from a network side; and selecting a random access resource whose transmission time is a designated transmission time from available random access resources in accordance with the random access resource configuration corresponding to the one or more beams, to transmit a random access request, characterized in that the random access resource whose transmission time is the designated transmission time is a randomly selected one of the available random access resources within a time period determined in accordance with a time for the random access resource with the earliest transmission time.
A catheter (10, 110, 210, 310) for use in cardiac mapping and/or ablation, the catheter (10, 110, 210, 310) comprising: an elongate catheter shaft (12, 112, 212, 312) having a distal ablation electrode region (24, 124, 224, 324); an electrode assembly (130, 230, 330) coupled to the distal ablation electrode region (24, 124, 224, 324); and wherein the catheter shaft (12, 112, 212, 312) includes an inner channel, wherein the distal ablation electrode region (24, 124, 224, 324) includes a first opening (128, 228, 328) and a second opening, and wherein the electrode assembly extends along the inner channel, through the first opening (128, 228, 328), is folded back proximally along an outer surface of the distal ablation electrode region (24, 124, 224, 324), and extends through the second opening, characterized in that the electrode assembly (130, 230, 330) includes a flexible circuit having one or more electrodes (132, 232, 332) disposed thereon. an elongate catheter shaft (12, 112, 212, 312) having a distal ablation electrode region (24, 124, 224, 324); an electrode assembly (130, 230, 330) coupled to the distal ablation electrode region (24, 124, 224, 324); and wherein the catheter shaft (12, 112, 212, 312) includes an inner channel, wherein the distal ablation electrode region (24, 124, 224, 324) includes a first opening (128, 228, 328) and a second opening, and wherein the electrode assembly extends along the inner channel, through the first opening (128, 228, 328), is folded back proximally along an outer surface of the distal ablation electrode region (24, 124, 224, 324), and extends through the second opening, characterized in that the electrode assembly (130, 230, 330) includes a flexible circuit having one or more electrodes (132, 232, 332) disposed thereon.
An integrated circuit, said integrated circuit comprising: one or more functional circuits operable to perform data processing operations; a diagnostic data capture circuit operable to capture from a bus a diagnostic data field of values comprising a data word generated by said one or more functional circuits and a context word representing a context of said one or more functional circuits associated with said data word; and a diagnostic data serial output circuit operable to serialise said diagnostic data field and output said diagnostic data field from said integrated circuit to an external diagnostic device; wherein a program instruction executing on at least one of said functional circuits generates said diagnostic data field; said diagnostic data capture circuit is operable to capture a bus transaction on said bus associated with an address matching a predetermined address characteristic; said predetermined characteristic is that said address falls within a predetermined range of addresses; characterised in that said diagnostic data capture circuit is a bus slave having at least one memory mapped address; said program instruction generates a bus transaction to one of said at least one memory mapped addresses on said bus from which said data word and said context word are captured; and said context word is an index value indicative of a position of said address within said predetermined range of addresses. one or more functional circuits operable to perform data processing operations; a diagnostic data capture circuit operable to capture from a bus a diagnostic data field of values comprising a data word generated by said one or more functional circuits and a context word representing a context of said one or more functional circuits associated with said data word; and a diagnostic data serial output circuit operable to serialise said diagnostic data field and output said diagnostic data field from said integrated circuit to an external diagnostic device; wherein a program instruction executing on at least one of said functional circuits generates said diagnostic data field;
A medical fluid injector system comprising: a syringe plunger driver comprising a drive source and a drive ram; and drive ram motion control logic characterized in that said drive ram motion control logic is configured to derive a drive ram velocity increase from a target pressure set in response to a user input. a syringe plunger driver comprising a drive source and a drive ram; and drive ram motion control logic characterized in that said drive ram motion control logic is configured to derive a drive ram velocity increase from a target pressure set in response to a user input.
Capping unit for articles such as containers and/or bottles in general, of the type comprising at least one capping group bearing one or more capping heads for screwing caps or capsules on said articles moved by at least one transport line, and at least one capping head store, adapted to retain the capping heads, in order to allow the rapid and automatic exchange and substitution of the capping group; said capping group being moved by an associated motorization, up to reaching said store such to store and pick up, automatically from the group itself the suitable capping head as a function of the size of the caps or capsules to be screwed, characterized in that said capping heads store comprises a plurality of plates integral to a catenary wound on a closed ring path; the catenary being configured to move said plates according to a horizontal sliding plane; wherein support means for the respective capping heads are integral on top of plates; wherein said support means are positioned such that they can hold said heads with cap holding means pointing downwards, i.e. towards the plates, and pull studs, which are configured to be linked to the capping group, pointing upwards.