mhurhangee/patent-ind-claim-en huggingface dataset:
Designing method of an insole for a user, comprising the steps of: - defining the following configuration parameters of supports plantar arch (SZ): initial portion of support for a plantar arch MAS; final portion of support for a plantar arch MAE; depth of support for a plantar arch AD; height of support for plantar arch AH; - defining a first plurality of dimensional parameters of a foot including: a foot length FLp; a foot width FWp; - defining, through said configuration parameters, three types of support for plantar arch in accordance with the following relationships and as a function of the first plurality of dimensional parameters of a foot: A) support for low plantar having parameters equal to: MAS = (29 ± 3)% of FL P ; MAE = (65 ± 2)% of FL P ; AD = (48 ± 5) % of FW P ; AH = 11.5 ± 2 mm; B) support for middle plantar arch having parameters equal to : MAS = (27 ± 2)% of FLp; MAE = (64 ± 2)% of FL P ; AD = (56 ± 5)% of FW P ; AH = 14.5 ± 2 mm; C) support for high plantar arch having parameters equal to: MAS = (26± 2)% of FLp ; MAE = (66 ± 2)% of FL P ; AD = (60 ± 5)% of FW P ; AH = 18.5 ± 2 mm; - measuring the first plurality of parameters of a user's foot; - designing an insole for said user having a support for the plantar arch (SZ) defined by the configuration parameters of one of said three types. - defining the following configuration parameters of supports plantar arch (SZ): initial portion of support for a plantar arch MAS; final portion of support for a plantar arch MAE; depth of support for a plantar arch AD; height of support for plantar arch AH; - defining a first plurality of dimensional parameters of a foot including: a foot length FLp; a foot width FWp; - defining, through said configuration parameters, three types of support for plantar arch in accordance with the following relationships and as a function of the first plurality of dimensional parameters of a foot: A) support for low plantar having parameters equal to: MAS = (29 ± 3)% of FL P ; MAE = (65 ± 2)% of FL P ; AD = (48 ± 5) % of FW P ; AH = 11.5 ± 2 mm; B) support for middle plantar arch having parameters equal to : MAS = (27 ± 2)% of FLp; MAE = (64 ± 2)% of FL P ; AD = (56 ± 5)% of FW P ; AH = 14.5 ± 2 mm; C) support for high plantar arch having parameters equal to: MAS = (26± 2)% of FLp ; MAE = (66 ± 2)% of FL P ; AD = (60 ± 5)% of FW P ; AH = 18.5 ± 2 mm; A) support for low plantar having parameters equal to: MAS = (29 ± 3)% of FL P ; MAE = (65 ± 2)% of FL P ; AD = (48 ± 5) % of FW P ; AH = 11.5 ± 2 mm; B) support for middle plantar arch having parameters equal to : MAS = (27 ± 2)% of FLp; MAE = (64 ± 2)% of FL P ; AD = (56 ± 5)% of FW P ; AH = 14.5 ± 2 mm; C) support for high plantar arch having parameters equal to: MAS = (26± 2)% of FLp ; MAE = (66 ± 2)% of FL P ; AD = (60 ± 5)% of FW P ; AH = 18.5 ± 2 mm; - measuring the first plurality of parameters of a user's foot; - designing an insole for said user having a support for the plantar arch (SZ) defined by the configuration parameters of one of said three types.
A medication delivery system comprising: a valved holding chamber comprising: a housing defining a flow channel ; a valve disposed in the flow channel , wherein the valve is moveable between first and second configurations in response to a flow through the flow channel , and is reconfigurable between a first condition and a second condition in response to an electrical stimuli; an actuator adapted to apply the electrical stimuli, wherein: the valve has a first resistance to moving between the first and second configurations when the valve is in the first condition, and wherein the valve has a second resistance to moving between the first and second configurations when the valve is in the second condition, wherein the first resistance is greater than the second resistance; the valved holding chamber is configured such that a flow rate of flow through the flow channel is calculated; and the valve is actively managed such that the flow rate through the valve does not exceed a predetermined threshold. a housing defining a flow channel ; a valve disposed in the flow channel , wherein the valve is moveable between first and second configurations in response to a flow through the flow channel , and is reconfigurable between a first condition and a second condition in response to an electrical stimuli; an actuator adapted to apply the electrical stimuli, wherein: the valve has a first resistance to moving between the first and second configurations when the valve is in the first condition, and wherein the valve has a second resistance to moving between the first and second configurations when the valve is in the second condition, wherein the first resistance is greater than the second resistance; the valved holding chamber is configured such that a flow rate of flow through the flow channel is calculated; and the valve is actively managed such that the flow rate through the valve does not exceed a predetermined threshold. the valve has a first resistance to moving between the first and second configurations when the valve is in the first condition, and wherein the valve has a second resistance to moving between the first and second configurations when the valve is in the second condition, wherein the first resistance is greater than the second resistance; the valved holding chamber is configured such that a flow rate of flow through the flow channel is calculated; and the valve is actively managed such that the flow rate through the valve does not exceed a predetermined threshold.
A method for allowing at least one service provider to collect wireless communication unit location related data for multiple mobile network operators, MNOs, the method is performed by a base station operating in a closed-access mode and supporting presence services for multiple MNOs, the method comprising the steps of broadcasting on a first frequency only a first public land mobile network identifier, PLMN-ID, of a first MNO at a first instant in time for detection by first wireless communication units associated with the first MNO; receiving location related information from the first wireless communication units associated with the first MNO in response to the broadcast first PLMN-ID; broadcasting on a second frequency only a second PLMN-ID of a second MNO, at a second instant in time for detection by second wireless communication units associated with the second MNO; and receiving location related information from the second wireless communication units associated with the second MNO in response to the broadcast second PLMN-ID; wherein receiving location related information comprises: receiving a handset identity of the wireless communication unit ; and extracting a first subset of digits of the handset's identity to derive a home PLMN, HPLMN of the wireless communication unit ; or using an address of a target PLMN provided by the wireless communication unit ; and in response thereto reject the wireless communication unit back to their normal macro network. receiving a handset identity of the wireless communication unit ; and extracting a first subset of digits of the handset's identity to derive a home PLMN, HPLMN of the wireless communication unit ; or using an address of a target PLMN provided by the wireless communication unit ; and in response thereto reject the wireless communication unit back to their normal macro network.
An electronic driving circuit for a microfluidic device having a number of electrodes , comprising a number of synchronized driving stages configured to generate a respective driving signal (V 1 , V 2 , V 3 ) for each electrode or group of electrodes of the number of electrodes ; the driving signals (V 1 , V 2 , V 3 ) having a desired amplitude, frequency and phase-shift, wherein each driving stage includes a switching-mode amplifier stage configured to receive a clock signal (CK) and a target signal (Vt) and to generate, at an output (Out) thereof, an output signal (V out ) defining the respective driving signal, the amplifier stage comprising: a switching module , coupled to a first internal node (N 1 ) and controlled by the clock signal (CK) for selectively bringing said first internal node (N 1 ) to a control signal (V c ); and a filter module , coupled between the first internal node (N 1 ) and the output (Out) and configured to provide the output signal (V out ); characterized in that the amplifier stage further comprises: a feedback module , coupled to a feedback input (IN fb ) of said driving stage, designed to receive a feedback signal (V fb ) indicative of the value of the respective driving signal, and configured to: generate, as a function of the comparison between said feedback signal (V fb ) and said target signal (V t ), the control signal (V c ) for said switching module ; and to feed-back the control signal (V c ) towards the switching module , to modulate the clock signal (CK) and define the output signal (V out ) . a switching module , coupled to a first internal node (N 1 ) and controlled by the clock signal (CK) for selectively bringing said first internal node (N 1 ) to a control signal (V c ); and a filter module , coupled between the first internal node (N 1 ) and the output (Out) and configured to provide the output signal (V out ); characterized in that the amplifier stage further comprises: a feedback module , coupled to a feedback input (IN fb ) of said driving stage, designed to receive a feedback signal (V fb ) indicative of the value of the respective driving signal, and configured to: generate, as a function of the comparison between said feedback signal (V fb ) and said target signal (V t ), the control signal (V c ) for said switching module ; and to feed-back the control signal (V c ) towards the switching module , to modulate the clock signal (CK) and define the output signal (V out ) .
A milk meter for measuring a flow rate of a milk flow, provided with an inlet to which, in use, the milk flow is supplied, an outlet where the milk flow leaves the milk meter, in use, and a liquid flow path extending from the inlet to the outlet , wherein the milk meter is provided with a measuring chamber which is included in the liquid flow path and a float which is in the measuring chamber and is configured to float on milk of the milk flow that is in the measuring chamber , wherein the milk meter is configured such that a level of milk in the measuring chamber depends on the flow rate of the milk flow, characterized in that in the float an electronic measuring unit is arranged for contactlessly measuring the height within the measuring chamber at which the float is floating on the milk in the measuring chamber so that the measured height is a measure of the flow rate of the milk flow, wherein the electronic measuring unit is provided with a transmitter unit for wirelessly emitting a signal which comprises information about the measured flow rate of the milk flow.
An isolated eukaryotic non-long terminal repeat reverse transcriptase (non-LTR RT) protein comprising a truncated N-terminal region, an RNA binding domain, an RT domain, and an endonuclease domain, wherein the endonuclease domain comprises a mutation that abolishes endonuclease function, wherein the eukaryotic non-LTR RT protein is a Bombyx mori R2 RT protein, the truncated N-terminal region results in a deletion of 274 amino acids from the N-terminus of the non-LTR RT protein as compared to a corresponding full-length non-LTR RT protein havng the amino acid sequence of SEQ ID NO:1, and the mutation that abolishes endonuclease function is a substitution mutation at amino acid residue D996, D1009, or K1026 of full-length Bombyx mori R2 RT (SEQ ID NO:1).
A tool body for a milling tool , the tool body comprising: - a front end and a rear end between which a centre axis (C) and a peripheral envelope surface extend, the tool body being configured to be rotated in a direction of rotation (R) around the centre axis (C), - at least one insert seat formed in a transition between the front end and the peripheral envelope surface , wherein the insert seat is configured to support a cutting insert adapted to be mounted therein, - a chip pocket provided in front of the insert seat in the direction of rotation (R), wherein the chip pocket is delimited by a wall surface , characterised in that a surface pattern comprising a plurality of first grooves (12, 12a-e) and second grooves (13, 13a-e) is formed on at least a portion of the wall surface , wherein the second grooves (13, 13a-e) intersect the first grooves (12, 12a-e) and wherein each groove of the first grooves and/or each groove of the second grooves has a concave groove profile . - a front end and a rear end between which a centre axis (C) and a peripheral envelope surface extend, the tool body being configured to be rotated in a direction of rotation (R) around the centre axis (C), - at least one insert seat formed in a transition between the front end and the peripheral envelope surface , wherein the insert seat is configured to support a cutting insert adapted to be mounted therein, - a chip pocket provided in front of the insert seat in the direction of rotation (R), wherein the chip pocket is delimited by a wall surface ,
A vector carrying an expression cassette comprising a human alpha-L-iduronidase (hIDUA) gene having the nucleotide sequence of SEQ ID NO: 1 or a sequence at least about 80% identical to SEQ ID NO: 1 which encodes a functional human alpha-L-iduronidase in human cells, wherein said expression cassette further comprises regulatory control sequences which direct expression of the human alpha-L-iduronidase in human cells, said regulatory control sequences comprising a liver-specific promoter.
A method of cosmetically whitening the teeth characterised in that it comprises the following steps: i) selecting a substantially rectangular application device; ii) applying composition comprising water, trisodium phosphate, monosodium phosphate and cellulose gum to the surface of the application device iii) followed by applying a non-aqueous composition comprising calcium silicate, calcium silicate coated TIO 2 and glycerol to the same surface of the application device as the first composition was applied to; iv) placing a treated surface of device iii) on the teeth for sustained contact. i) selecting a substantially rectangular application device; ii) applying composition comprising water, trisodium phosphate, monosodium phosphate and cellulose gum to the surface of the application device iii) followed by applying a non-aqueous composition comprising calcium silicate, calcium silicate coated TIO 2 and glycerol to the same surface of the application device as the first composition was applied to; iv) placing a treated surface of device iii) on the teeth for sustained contact.
A composition comprising a plurality of particles, wherein said particles comprise: at least 40% by weight of said particles of a non-germinant carrier wherein the carrier comprises polyethylene glycol, wherein said polyethylene glycol has a weight average molecular weight from about 2000 to about 13000 and wherein the particles comprise more than 40% by weight of said particles of polyethylene glycol; and from 0.0001% to 5% by weight of said particles of a bacterial composition comprising bacterial endospores wherein the endospores comprise bacteria from the genus Bacillus ; and wherein each of said particles has a mass between 1 mg to 5000 mg, preferably between 5 mg and 200 mg. at least 40% by weight of said particles of a non-germinant carrier wherein the carrier comprises polyethylene glycol, wherein said polyethylene glycol has a weight average molecular weight from about 2000 to about 13000 and wherein the particles comprise more than 40% by weight of said particles of polyethylene glycol; and from 0.0001% to 5% by weight of said particles of a bacterial composition comprising bacterial endospores wherein the endospores comprise bacteria from the genus Bacillus ; and wherein each of said particles has a mass between 1 mg to 5000 mg, preferably between 5 mg and 200 mg.
A method producing a terrazzo floor on a floor, said terrazzo floor providing a design provided by a series of filling compositions and boundary walls forming a boundary between filling compositions of said series of filling compositions, said method comprising: - providing a base web ; - 3D printing a pattern of said boundary walls of thermoplastic material on said base web with said boundary walls having an upper face extending up to 60 cm from a lower face of said boundary walls, said boundary walls dividing a part of said floor to be covered into at least partially enclosed surface parts and providing a boundary for said series of filling compositions in said at least partially enclosed surface parts for preventing mixing of filling compositions of neighbouring at least partially enclosed surface parts; - applying said base web with said boundary walls coupled to it onto said floor; - covering said base web and at least part of said boundary walls with said series of filling compositions, and - after applying the series of filling compositions and once the series of filling compositions are set, grinding or polishing a surface of the filling composition for making the upper end of the boundary walls visible and revealing said design. - providing a base web ; - 3D printing a pattern of said boundary walls of thermoplastic material on said base web with said boundary walls having an upper face extending up to 60 cm from a lower face of said boundary walls, said boundary walls dividing a part of said floor to be covered into at least partially enclosed surface parts and providing a boundary for said series of filling compositions in said at least partially enclosed surface parts for preventing mixing of filling compositions of neighbouring at least partially enclosed surface parts; - applying said base web with said boundary walls coupled to it onto said floor; - covering said base web and at least part of said boundary walls with said series of filling compositions, and - after applying the series of filling compositions and once the series of filling compositions are set, grinding or polishing a surface of the filling composition for making the upper end of the boundary walls visible and revealing said design.
Method for supplying the user of an online service with a dynamic code via a telephone , in which said user supplies, on the one hand, an identifier to a computer server operating an online service, by means of a network terminal connected to said computer server by a digital network , and, on the other hand, a dynamic code intended to be used with the online service, said method comprising a phase of generating the dynamic code and a phase of transferring the dynamic code to the telephone of the user, characterized in that , to generate the dynamic code: o the number of a calling line is selected, using an algorithm and a set of parameters included in a dynamic code request transmitted by the online service to a code server , from a set of available lines, with a view to calling the telephone of the user; ∘ then the code server determines the dynamic code from said calling line number, using a dynamic code extraction rule, which designates the digits of the telephone number of the calling line to be taken into account to make up the dynamic code; the method furthermore being characterized in that , to transmit the dynamic code to the user without exchanging an SMS message: ∘ a call notification and the rule for extracting the dynamic code from the call number are sent, by means of the online service, to the network terminal of the user; ∘ a telephone call to the telephone of the user is initiated using the previously selected calling line number, this call being interrupted once the number of the calling line, which incorporates said dynamic code, is displayed on the telephone of the user; ∘ said dynamic code is extracted from the calling line number, using the previously communicated extraction rule. o the number of a calling line is selected, using an algorithm and a set of parameters included in a dynamic code request transmitted by the online service to a code server , from a set of available lines, with a view to calling the telephone of the user; ∘ then the code server determines the dynamic code from said calling line number, using a dynamic code extraction rule, which designates the digits of the telephone number of the calling line to be taken into account to make up the dynamic code; ∘ a call notification and the rule for extracting the dynamic code from the call number are sent, by means of the online service, to the network terminal of the user; ∘ a telephone call to the telephone of the user is initiated using the previously selected calling line number, this call being interrupted once the number of the calling line, which incorporates said dynamic code, is displayed on the telephone of the user; ∘ said dynamic code is extracted from the calling line number, using the previously communicated extraction rule.
A photon scanning apparatus comprising a photon source to emit a photon beam , a photon detector positioned in the propagation direction of the photon beam to detect photons emitted from the photon source , wherein the photon source and the photon detector are commonly rotatable around a central axis (R), wherein the photon source is adapted to emit the photon beam in accordance with a predetermined pulse width modulation scheme at a predetermined flux rate, wherein the pulse width modulation scheme defines pulse widths of the photon beam for respective positions of the photon source and the photon detector around and along the central axis (R) and an object to be scanned, and wherein the photon detector is adapted to start detecting photons for a time period corresponding to one of the predetermined pulse widths with a delay relative to the photon source starting to emit photons and to finish detecting photons prior to the photon source stopping to emit photons. a photon source to emit a photon beam , a photon detector positioned in the propagation direction of the photon beam to detect photons emitted from the photon source , wherein the photon source and the photon detector are commonly rotatable around a central axis (R),