mhurhangee/ep-ind-claims huggingface dataset:
A method for managing an installation of an Android application package,APK, in a device, the method comprises: receiving, by the device, an installation request for the APK; retrieving, by the device, a permission certificate for the APK according to the installation request, wherein the permission certificate for the APK includes a cryptographic signature; determining, by the device, a validity of the permission certificate by verifying the cryptographic signature included in the permission certificate using a permission certification public key of the manufacturer of the device, wherein the permission certification public key is stored in the device; and allowing the installation of the APK in the device when the permission certificate is determined to be valid; wherein the cryptographic signature included in the permission certificate is generated at a server associated with the manufacturer of the device when a permission certification private key of the manufacturer of the device is used to cryptographically sign the permission certificate for the APK; wherein the cryptographically signed permission certificate for the APK comprises the development public key of the APK, the name of the APK; the permission granted to the APK, and the validity period of the permission certificate. receiving, by the device, an installation request for the APK; retrieving, by the device, a permission certificate for the APK according to the installation request, wherein the permission certificate for the APK includes a cryptographic signature; determining, by the device, a validity of the permission certificate by verifying the cryptographic signature included in the permission certificate using a permission certification public key of the manufacturer of the device, wherein the permission certification public key is stored in the device; and allowing the installation of the APK in the device when the permission certificate is determined to be valid; wherein the cryptographic signature included in the permission certificate is generated at a server associated with the manufacturer of the device when a permission certification private key of the manufacturer of the device is used to cryptographically sign the permission certificate for the APK; wherein the cryptographically signed permission certificate for the APK comprises the development public key of the APK, the name of the APK; the permission granted to the APK, and the validity period of the permission certificate.
A particle sensor comprising: an input flow channel for receiving a gas flow with entrained matter to be sensed; a thermophoretic arrangement (14a, 14b) to induce a thermophoretic particle movement from a first region of the input flow channel to a second region of the input flow channel, the first region being warmer than the second region; and wherein the first region of the input flow channel couples to a first output flow region and the second region of the input flow channel couples to a second output flow region; characterized in that the particle sensor further comprises a sensor comprising a particle sensor component which is located downstream of the first region of the input flow channel in the first output flow region. an input flow channel for receiving a gas flow with entrained matter to be sensed; a thermophoretic arrangement (14a, 14b) to induce a thermophoretic particle movement from a first region of the input flow channel to a second region of the input flow channel, the first region being warmer than the second region; and wherein the first region of the input flow channel couples to a first output flow region and the second region of the input flow channel couples to a second output flow region; characterized in that the particle sensor further comprises a sensor comprising a particle sensor component which is located downstream of the first region of the input flow channel in the first output flow region.
A method of handling packet flow in a Software-Defined Network, SDN, comprising a server with a SDN controller and a SDN switch with flow table (12a, 12b, 12c) comprising detailed entries (A.1, A.2, A.3, B.1, B.2, B.3, C.1) defining parameters required for assigning a packet to a data flow, and a field defining priority, wherein detailed entries are included in corresponding aggregated entries (A, B, C), which are prepared in advance to define routing policy before commencing flow handling in a time window of a predefined length, characterized in that the length of predefined window is at least two hours, the SDN controller acquires from the SDN switch data related to flow statistics for entries installed in flow tables, while an incoming packet belonging to a new flow is forwarded to the SDN controller, simultaneously being handled according to the corresponding aggregated entry, and the SDN controller defines, by means of a reactive mechanism, a new detailed entry corresponding to the flow, and proactively modifies the aggregated entries (A, B, C) intended to be used to define routing policy in the next time window, using static optimisation of an objective function including weighted sum of criterions selected in a group including energy consumption, sum of delays on all network links, the maximal delay among all the network links, total utilization of resources for all network links, the maximal utilization of resources among all the network links, based on the data related to flow statistics, wherein the aggregated entries (A, B, C) have assigned lower priorities than detailed entries (A.1, A.2, A.3, B.1, B.2, B.3, C.1). of an objective function including weighted sum of criterions selected in a group including energy consumption, sum of delays on all network links, the maximal delay among all the network links, total utilization of resources for all network links, the maximal utilization of resources among all the network links, based on the data related to flow statistics, wherein the aggregated entries (A, B, C) have assigned lower priorities than detailed entries (A.1, A.2, A.3, B.1, B.2, B.3, C.1).
An adhesive article comprising: a biocompatible and at least partially biodegradable substrate having a surface; protrusions extending from the surface, the protrusions comprising a biocompatible and at least partially biodegradable material, and having an average height of less than approximately 1,000 micrometers, and wherein the protrusions have a tip width to pitch ratio (T/P) ranging from about 0.8 to about 0.1 and wherein at least a portion of the adhesive has an adhesive strength of greater than approximately 0.1 Newton per square centimetre of projected area when measured according to ASTM standard D4501. a biocompatible and at least partially biodegradable substrate having a surface; protrusions extending from the surface, the protrusions comprising a biocompatible and at least partially biodegradable material, and having an average height of less than approximately 1,000 micrometers, and wherein the protrusions have a tip width to pitch ratio (T/P) ranging from about 0.8 to about 0.1 and wherein at least a portion of the adhesive has an adhesive strength of greater than approximately 0.1 Newton per square centimetre of projected area when measured according to ASTM standard D4501.
Method for exchanging telegrams (6, 7, 8, 9) between two communicating participants (2, 3), wherein the participants (2, 3) are each connected at least to a first and a second communication channel (4, 5), and wherein the telegrams (6, 7, 8, 9) each comprise a telegram header and a data block, wherein transmission and acknowledgement information (13, 14) is entered into the data block by means of each participant (2, 3) in such a telegram (6, 7, 8, 9) to be transmitted, wherein all previously transmitted telegrams (6, 7, 8, 9) are indicated by means of the transmission information and all previously acknowledged telegrams (6, 7, 8, 9) are indicated by means of the acknowledgement information, and wherein in the event that such a telegram (6, 8) is transmitted from one of the two participants to the other participant via one of the communication channels and said one participant has not received from the other participant within a predetermined or predeterminable period of time (Qz) a telegram (7, 9) containing the acknowledgment information about the receipt of the previously transmitted telegram (6, 8), the non-acknowledged telegrams (6, 8) are transmitted once again from the one participant to the other participant via the other communication channel.
A method for producing a high-strength cold-rolled steel sheet comprising hot-rolling and cold-rolling steel having a composition which consists of, by % by mass, over 0.01% to less than 0.08% of C, 0.2% or less of Si, 0.8% to less than 1.7% of Mn, 0.03% or less of P, 0.02% or less of S, 0.3% or less of sol. Al, 0.01% or less of N, and over 0.4% to 2% of Cr, and which satisfies 1.9 < [Mneq] < 3 and 0.34 ≤ [%Cr]/[%Mn], optionally 0.005% or less of B, optionally further at least one of 0.1% or less of Mo, 0.2% or less of V, less than 0.014% of Ti, less than 0.01% of Nb, 0.3% or less of Ni, and 0.3% or less of Cu, the balance being composed of iron and inevitable impurities; heating at an average heating rate of less than 3 °C/sec in a temperature range of 680°C to 740°C; annealing at an annealing temperature of over 740°C to less than 820°C; cooling at an average cooling rate of 2 to 30 °C/sec in a temperature range of the annealing temperature to 650°C; cooling at an average cooling rate of 10 °C/sec or more in a temperature range of 650°C to Tc°C represented by equation below; and cooling at an average cooling rate of 0.2 to 10 °C/sec in a temperature range of Tc°C to 200°C, Tc = 410 − 40 × % Mn − 30 × % Cr wherein [Mneq] represents the Mn equivalent shown by [Mneq] = [%Mn] + 1.3 × [%Cr] and [%Mn] and [%Cr] represent the contents of Mn and Cr, respectively.
Chain for jewels comprising a plurality of elements directly concatenated to each other, each element being constituted by two symmetric parts (2, 3) joined to each other by a central body, wherein in each of said two parts (2, 3) an essentially longitudinal body (20; 30) is defined and it is provided with two appendages (21, 22; 31, 32) arranged on opposite sides with respect to the longitudinal axis (X-X) of said element and with a terminal part (23; 33), said appendages and said terminal part folding by about 90° with respect to said longitudinal body (20; 30) when said symmetric parts (2, 3) of said element are folded on each other so as to constitute an essentially box-shaped element, characterised in that said central body of each element, which is concatenated in succession with each adjacent element of said chain, contrasts against said appendages (21, 22; 31, 32) of said adjacent element when said chain is subjected to a tensile stress, while the terminal parts (23; 33) of each element remain load-free.
A container system for peritoneal dialysis solutions, comprising: A. a first compartment containing a first PD agent; B. a second compartment containing a second PD agent, the second compartment being in any of direct and indirect fluid coupling with the first compartment, a vessel forming the second compartment folding upon application of force and expelling the second PD agent in connection therewith; C. a first frangible seal that prevents fluid transfer between the first compartment and the second compartment; D. a second frangible seal that prevents fluid transfer between the second compartment and an outlet fluid pathway of the container system; and E. a protective member (52; 53) slidably disposed on the container system to move from a first position, wherein it inhibits breaking of the second frangible seal, to a second position, wherein it does not inhibit breaking of the second frangible seal, wherein the protective member comprises a slot generally aligned normal to a plane of the vessel forming the second compartment such that the protective member is arranged to move to the second position only if that vessel is folded in the manner of butterfly wings (21B, 21C) such that sides thereof are aligned with the slot. A. a first compartment containing a first PD agent; B. a second compartment containing a second PD agent, the second compartment being in any of direct and indirect fluid coupling with the first compartment, a vessel forming the second compartment folding upon application of force and expelling the second PD agent in connection therewith; C. a first frangible seal that prevents fluid transfer between the first compartment and the second compartment; D. a second frangible seal that prevents fluid transfer between the second compartment and an outlet fluid pathway of the container system; and E. a protective member (52; 53) slidably disposed on the container system to move from a first position, wherein it inhibits breaking of the second frangible seal, to a second position, wherein it does not inhibit breaking of the second frangible seal, wherein the protective member comprises a slot generally aligned normal to a plane of the vessel forming the second compartment such that the protective member is arranged to move to the second position only if that vessel is folded in the manner of butterfly wings (21B, 21C) such that sides thereof are aligned with the slot.
A cooker comprising: a cooking chamber adapted for cooking food in it; a heat source adapted for heating the food in the cooking chamber; a lighting device adapted for illuminating an inner portion of the cooking chamber; an image sensor adapted for scanning the inner portion of the cooking chamber and the food; and a control part adapted for correcting a food image distorted by a condition change made while cooking the food in the cooking chamber, characterized in that: the control part is adapted to operate the image sensor and the lighting device, to obtain an inner image of the cooking chamber by the image sensor after the heat source is set into operation, to read an RGB color value from the inner image of the cooking chamber, and to correct the image of the food in the cooking chamber scanned by the image sensor by using a difference between the RGB color value of the inner image of the cooking chamber scanned by the image sensor after the heat source is set into operation and a preset reference RGB color value read from an inner image of the cooking chamber scanned by the image sensor before the heat source is operated, wherein the preset reference RGB color value is stored in a data storage. a cooking chamber adapted for cooking food in it; a heat source adapted for heating the food in the cooking chamber; a lighting device adapted for illuminating an inner portion of the cooking chamber; an image sensor adapted for scanning the inner portion of the cooking chamber and the food; and a control part adapted for correcting a food image distorted by a condition change made while cooking the food in the cooking chamber, the control part is adapted to operate the image sensor and the lighting device, to obtain an inner image of the cooking chamber by the image sensor after the heat source is set into operation, to read an RGB color value from the inner image of the cooking chamber, and to correct the image of the food in the cooking chamber scanned by the image sensor by using a difference between the RGB color value of the inner image of the cooking chamber scanned by the image sensor after the heat source is set into operation and a preset reference RGB color value read from an inner image of the cooking chamber scanned by the image sensor before the heat source is operated, wherein the preset reference RGB color value is stored in a data storage. to operate the image sensor and the lighting device, to obtain an inner image of the cooking chamber by the image sensor after the heat source is set into operation, to read an RGB color value from the inner image of the cooking chamber, and to correct the image of the food in the cooking chamber scanned by the image sensor by using a difference between the RGB color value of the inner image of the cooking chamber scanned by the image sensor after the heat source is set into operation and a preset reference RGB color value read from an inner image of the cooking chamber scanned by the image sensor before the heat source is operated, wherein the preset reference RGB color value is stored in a data storage.
A database-as-a-service system, comprising: an auto-scaling module configured to: automatically compute container sizes of containers in database servers for subsequent billing intervals based on telemetry from the database servers, wherein the telemetry comprises, for each request for a resource in a container, a time spent waiting for each resource as a percentage of total waits for all resources in the container for an interval of time; and automatically scale the container sizes of the containers for a billing interval on behalf of a tenant based on the telemetry; and at least one hardware processor configured to execute computer-executable instructions in a memory, the instructions executed to enable the auto-scaling module. automatically compute container sizes of containers in database servers for subsequent billing intervals based on telemetry from the database servers, wherein the telemetry comprises, for each request for a resource in a container, a time spent waiting for each resource as a percentage of total waits for all resources in the container for an interval of time; and automatically scale the container sizes of the containers for a billing interval on behalf of a tenant based on the telemetry; and at least one hardware processor configured to execute computer-executable instructions in a memory, the instructions executed to enable the auto-scaling module.
A method for transmitting data within a communication system, the method comprising the steps of: receiving data to be transmitted over a radio frame (300, 400, 500), wherein the radio frame is comprised of a plurality of subframes (301, 401, 501); selecting a frame length comprising multiple subframes; selecting a subframe type from one of two or more types of subframes for the multiple of subframes, wherein one or more types of subframes comprise broadcast subframes and unicast subframes wherein the each of the broadcast subframes and the unicast subframes comprise a cyclic prefix and wherein a length of the cyclic prefix identifies if a particular subframe is a broadcast subframe or a unicast subframe; placing the data within the multiple subframes to produce multiple subframes of data; and transmitting the frame having the multiple subframes of data and the subframe type over the radio frame. receiving data to be transmitted over a radio frame (300, 400, 500), wherein the radio frame is comprised of a plurality of subframes (301, 401, 501); selecting a frame length comprising multiple subframes; selecting a subframe type from one of two or more types of subframes for the multiple of subframes, wherein one or more types of subframes comprise broadcast subframes and unicast subframes wherein the each of the broadcast subframes and the unicast subframes comprise a cyclic prefix and wherein a length of the cyclic prefix identifies if a particular subframe is a broadcast subframe or a unicast subframe; placing the data within the multiple subframes to produce multiple subframes of data; and transmitting the frame having the multiple subframes of data and the subframe type over the radio frame.
A compound of formula: wherein: X is alkylene having up to 8 carbon atoms interrupted or terminated by -O-; R 2 is hydrogen, alkyl, alkoxyalkylenyl, alkylaminoalkylenyl, or hydroxyalkylenyl; P is an amino group, a protected amino group selected from carbamates and imines, or NH 3 + Y -, wherein Y - is a counter anion; A is CH or N; R is halogen, hydroxyl, alkyl, haloalkyl, or alkoxy; and n is an integer from 0 to 4; or a pharmaceutically acceptable salt thereof. X is alkylene having up to 8 carbon atoms interrupted or terminated by -O-; R 2 is hydrogen, alkyl, alkoxyalkylenyl, alkylaminoalkylenyl, or hydroxyalkylenyl; P is an amino group, a protected amino group selected from carbamates and imines, or NH 3 + Y -, wherein Y - is a counter anion; A is CH or N; R is halogen, hydroxyl, alkyl, haloalkyl, or alkoxy; and n is an integer from 0 to 4;
A method for preparing ozonized olive oil comprising: (i) preparing a dispersion comprising olive oil and 0.5-15.0 vol.% of water, preferably 1.1-12.0 vol.%, more preferably 1.1-10.0 vol.%, even more preferably 1.5-8.0 vol.%; wherein step (i) comprises: (i.a1) preparing a first dispersion by mixing a quantity Q2 of water and at least one vegetable oil, preferably at least one vegetable oil comprising oleic acid (C18:1) and linoleic acid (C18:2) in a total amount greater than or equal to 35% by weight, thus obtaining the first dispersion, wherein the quantity of water Q2 is less than or equal to 50 vol.%, wherein the quantity Q2 is expressed as the volume of water relative to the total volume of the first dispersion; and (i.a2) mixing the first dispersion and the olive oil, thus obtaining a second W/O dispersion comprising 0.5-15.0 vol.% of water, preferably 1.1-12.0 vol.%, more preferably 1.1-10.0 vol.%, even more preferably 1.5-8.0 vol.%; and (ii) at least one step of bubbling a quantity Q1 of ozone into the second W/O dispersion and, optionally, adding water, wherein: - in step (ii) the water is optionally added in the liquid phase or vapour phase; and - the total quantity of water added to the olive oil in step (i) and (ii) is 0.5-15.0 vol.%. (i) preparing a dispersion comprising olive oil and 0.5-15.0 vol.% of water, preferably 1.1-12.0 vol.%, more preferably 1.1-10.0 vol.%, even more preferably 1.5-8.0 vol.%; wherein step (i) comprises: (i.a1) preparing a first dispersion by mixing a quantity Q2 of water and at least one vegetable oil, preferably at least one vegetable oil comprising oleic acid (C18:1) and linoleic acid (C18:2) in a total amount greater than or equal to 35% by weight, thus obtaining the first dispersion, wherein the quantity of water Q2 is less than or equal to 50 vol.%, wherein the quantity Q2 is expressed as the volume of water relative to the total volume of the first dispersion; and (i.a2) mixing the first dispersion and the olive oil, thus obtaining a second W/O dispersion comprising 0.5-15.0 vol.% of water, preferably 1.1-12.0 vol.%, more preferably 1.1-10.0 vol.%, even more preferably 1.5-8.0 vol.%; and (i.a1) preparing a first dispersion by mixing a quantity Q2 of water and at least one vegetable oil, preferably at least one vegetable oil comprising oleic acid (C18:1) and linoleic acid (C18:2) in a total amount greater than or equal to 35% by weight, thus obtaining the first dispersion, wherein the quantity of water Q2 is less than or equal to 50 vol.%, wherein the quantity Q2 is expressed as the volume of water relative to the total volume of the first dispersion; and (i.a2) mixing the first dispersion and the olive oil, thus obtaining a second W/O dispersion comprising 0.5-15.0 vol.% of water, preferably 1.1-12.0 vol.%, more preferably 1.1-10.0 vol.%, even more preferably 1.5-8.0 vol.%; and (ii) at least one step of bubbling a quantity Q1 of ozone into the second W/O dispersion and, optionally, adding water, - in step (ii) the water is optionally added in the liquid phase or vapour phase; and - the total quantity of water added to the olive oil in step (i) and (ii) is 0.5-15.0 vol.%.